Rail bracket

A bracket comprising:

• a flange configured to be attached to a vertical surface;
• a first socket coupled to the flange, the first socket comprising:
• a base configured to support a first beam, and
• two walls extending vertically away from the base, the two walls defining a gap therebetween to receive the beam,
• wherein the first socket defines an open end opposite the base to allow the beam to be removed from the socket by lifting the beam from the base;
• and
• a second socket coupled to the flange and spaced from the first socket, the second socket comprising:
• a second base configured to support a second beam spaced from the first beam, and
• two walls extending vertically away from the base, the two walls defining a gap therebetween to receive the second beam,
• wherein the second socket defines an open end opposite the second base to allow the second beam to be removed from the socket by lifting the second beam from the second base;
• wherein a first wall of the two walls of the first socket defines a first aperture and wherein a second wall of the two walls defines a second aperture generally aligned with the first aperture, the first aperture configured to receive a mechanical fastener configured to attach the bracket to the vertical surface or a second vertical surface extending parallel to a plane of the first wall, the second aperture configured to receive a torque-imparting tool configured to impart torque to the mechanical fastener.

A method of assembling safety guardrails, the method comprising:

• placing a first rail on a first socket of a first bracket attached to a first vertical surface, the first socket comprising a base configured to support a first portion of the first rail and comprising two walls extending vertically away from the base, the two walls defining a gap therebetween to receive the first portion of the first rail to retain the first rail on the base, the first socket configured to allow the first rail to be removed from the first socket by lifting the first rail from the base, a first wall of the two walls of the first socket defining a first aperture and a second wall of the two walls defining a second aperture generally aligned with the first aperture, the first aperture configured to receive a mechanical fastener configured to attach the bracket to the first vertical surface extending parallel to a plane of the first wall, the second aperture configured to receive a torque-imparting tool configured to impart torque to the mechanical fastener;
• placing a second portion of the first rail on a third socket of a second bracket attached to a second vertical surface away from the first vertical surface, the second bracket facing the first bracket, the third socket similar to the first socket such that the third socket allows the first rail to be removed from the third socket by lifting the first rail from the third socket;
• placing a first portion of a second rail on a second socket of the first bracket, the second socket residing at a vertical location along a length of the first bracket away from the first socket, the second socket similar to the first socket such that the second socket allows the second rail to be removed from the second socket by lifting the second rail from the second socket;
• and
• placing a second portion of the second rail on a fourth socket of the second bracket, the fourth socket residing at a vertical location along a length of the second bracket away from the third socket, the fourth socket similar to the first socket such that the fourth socket allows the second rail to be removed from the fourth socket by lifting the second rail from the fourth socket.

A guardrail assembly comprising:

• a first bracket coupled to a first vertical surface, the first bracket comprising:
• a first socket configured to support a first portion of a first horizontal rail, the first socket comprising a first support surface and two walls extending vertically away from the first support surface, the two walls defining a gap therebetween to receive the first portion of the first rail, the first socket defining an opening at an end of the two walls opposite the first support surface to allow the first horizontal rail to be removed from the first socket by lifting the rail, the first socket disposed at a first vertical elevation along a length of the first bracket, and
• a second socket residing at a second vertical elevation less than the first vertical elevation, the second socket configured to support a first portion of a second horizontal rail, the second socket comprising a second support surface and two walls extending vertically away from the second support surface, the two walls defining a gap therebetween to receive the first portion of the second rail, the second socket defining an opening at an end of the two walls opposite the second support surface to allow the second horizontal rail to be removed from the second socket by lifting the rail;
• and
• a second bracket coupled to a second vertical surface spaced from the first vertical surface, the second bracket facing the first bracket and comprising:
• a third socket configured to support a second portion of the first rail, the third socket comprising a third support surface and two walls extending vertically away from the third support surface, the two walls defining a gap therebetween to receive the second portion of the first rail, the third socket defining an opening at an end of the two walls opposite the third support surface to allow the first rail to be removed from the third socket by lifting the rail, the third socket disposed at a third vertical elevation along a length of the second bracket similar to the first vertical elevation, and
• a fourth socket residing at a fourth vertical elevation less than the third vertical elevation and similar to the second vertical elevation, the fourth socket configured to support a second portion of the second rail, the fourth socket comprising a fourth support surface and two walls extending vertically away from the fourth support surface, the two walls defining a gap therebetween to receive the second portion of the second rail, the fourth socket defining an opening at an end of the two walls opposite the fourth support surface to allow the second rail to be removed from the fourth socket by lifting the rail;
• wherein the first bracket comprises a longitudinal flange from which the first and second sockets extend, the longitudinal flange defining an aperture configured to receive a mechanical fastener configured to attach the first bracket to the first vertical surface;
• and
• wherein the longitudinal flange extends from a top surface of the walls of the first socket to the support surface of the second socket, the longitudinal flange extending between two lateral surfaces coplanar with exterior surfaces of the walls of the first socket and the second socket.

A guardrail assembly comprising:

• a first bracket coupled to a first vertical surface, the first bracket comprising:
• a first socket configured to support a first portion of a first horizontal rail, the first socket comprising a first support surface and two walls extending vertically away from the first support surface, the two walls defining a gap therebetween to receive the first portion of the first rail, the first socket defining an opening at an end of the two walls opposite the first support surface to allow the first horizontal rail to be removed from the first socket by lifting the rail, the first socket disposed at a first vertical elevation along a length of the first bracket, and
• a second socket residing at a second vertical elevation less than the first vertical elevation, the second socket configured to support a first portion of a second horizontal rail, the second socket comprising a second support surface and two walls extending vertically away from the second support surface, the two walls defining a gap therebetween to receive the first portion of the second rail, the second socket defining an opening at an end of the two walls opposite the second support surface to allow the second horizontal rail to be removed from the second socket by lifting the rail;
• and
• a second bracket coupled to a second vertical surface spaced from the first vertical surface, the second bracket facing the first bracket and comprising:
• a third socket configured to support a second portion of the first rail, the third socket comprising a third support surface and two walls extending vertically away from the third support surface, the two walls defining a gap therebetween to receive the second portion of the first rail, the third socket defining an opening at an end of the two walls opposite the third support surface to allow the first rail to be removed from the third socket by lifting the rail, the third socket disposed at a third vertical elevation along a length of the second bracket similar to the first vertical elevation, and
• a fourth socket residing at a fourth vertical elevation less than the third vertical elevation and similar to the second vertical elevation, the fourth socket configured to support a second portion of the second rail, the fourth socket comprising a fourth support surface and two walls extending vertically away from the fourth support surface, the two walls defining a gap therebetween to receive the second portion of the second rail, the fourth socket defining an opening at an end of the two walls opposite the fourth support surface to allow the second rail to be removed from the fourth socket by lifting the rail;
• wherein the first socket comprises a back wall extending between the two walls and away from the support surface, the back wall defining an eperture configured to receive a mechanical fastener configured to attach the first bracket to the vertical surface.

A bracket comprising:

• a flange configured to be attached to a vertical surface;
• a first socket coupled to the flange, the first socket comprising:
• a base configured to support a first beam, and
• two walls extending vertically away from the base, the two walls defining a gap therebetween to receive the beam,
• wherein the first socket defines an open end opposite the base to allow the beam to be removed from the socket by lifting the beam from the base;
• and
• a second socket coupled to the flange and spaced from the first socket, the second socket comprising:
• a second base configured to support a second beam spaced from the first beam, and
• two walls extending vertically away from the base, the two walls defining a gap therebetween to receive the second beam,
• wherein the second socket defines an open end opposite the second base to allow the second beam to be removed from the socket by lifting the second beam from the second base;
• wherein the flange extends vertically away from the two walls away from the socket, the flange extending laterally between two side surfaces coplanar with exterior surfaces of the walls of the first socket and the second socket.