mhurhangee/ep-ind-claims huggingface dataset:
A lighting module comprising: a first and a second light source units (130a, 130b) which are disposed to face each other; a first case in which the first light source unit is disposed; a second case in which the second light source unit is disposed; a first plate of which one side is connected to the first case, of which the other side is connected to the second case and which includes a plurality of first holes through which light emitted from the first and the second light source units (130a, 130b) passes; a second plate which is disposed to face the first plate and includes a plurality of second holes through which the light emitted from the first and the second light source units (130a, 130b) passes; a first and a second optical sheets (120a, 120b) which are disposed on the first and the second plates (150a, 150b); and a reflector (160, 160', 160") which is disposed between the first light source unit and the second light source unit and includes a reflective surface reflecting the light emitted from the first and the second light source units (130a, 130b) toward the first and the second plates (110a, 110b), Characterized in that: the amount of the light emitted through the first plate is not the same as the amount of the light emitted through the second plate, and wherein the reflector (160, 160', 160") has a cylindrical shape or a polygonal box shape. a first and a second light source units (130a, 130b) which are disposed to face each other; a first case in which the first light source unit is disposed; a second case in which the second light source unit is disposed; a first plate of which one side is connected to the first case, of which the other side is connected to the second case and which includes a plurality of first holes through which light emitted from the first and the second light source units (130a, 130b) passes; a second plate which is disposed to face the first plate and includes a plurality of second holes through which the light emitted from the first and the second light source units (130a, 130b) passes; a first and a second optical sheets (120a, 120b) which are disposed on the first and the second plates (150a, 150b); and a reflector (160, 160', 160") which is disposed between the first light source unit and the second light source unit and includes a reflective surface reflecting the light emitted from the first and the second light source units (130a, 130b) toward the first and the second plates (110a, 110b), the amount of the light emitted through the first plate is not the same as the amount of the light emitted through the second plate, and wherein the reflector (160, 160', 160") has a cylindrical shape or a polygonal box shape.
A dispensing mechanism for dispensing tablets of a washing product into a washing machine, the dispensing mechanism comprising: a storage module containing a plurality of tablets of washing product; and a dispensing module for selectively dispensing the tablets from the storage module; the storage module having an opening in its lowermost surface and an inclined floor to cause the tablets to move towards the opening under gravity; the dispensing module having a screw dispenser and a motor to selectively rotate the screw dispenser to convey tablets from a position beneath the opening to an outlet opening via which they are expelled from the dispensing module, characterised in that the storage module is releasably attachable, in use, to the top of the dispensing module. a storage module containing a plurality of tablets of washing product; and a dispensing module for selectively dispensing the tablets from the storage module; the storage module having an opening in its lowermost surface and an inclined floor to cause the tablets to move towards the opening under gravity; the dispensing module having a screw dispenser and a motor to selectively rotate the screw dispenser to convey tablets from a position beneath the opening to an outlet opening via which they are expelled from the dispensing module, characterised in that the storage module is releasably attachable, in use, to the top of the dispensing module.
A flooring system, comprising a plurality of rectangular floor panels (1,1') with long and short edges which are mechanically connectable to each other along one pair of adjacent joint edges, each floor panel being provided with a first groove formed in one piece with the panel at a first joint edge and a flexible tongue connected to a second groove at a second opposite joint edge for mechanically locking together said adjacent joint edges at right angles to the principal plane of the panels, thereby forming a vertical mechanical connections between the panels, said panels being provided with a locking element, which is formed in one piece with the panel, at one of said first and second joint edges (5a, 5b) and a locking groove at an opposite first or second joint edge, for mechanically locking together said adjacent joint edges parallel to the principal plane and at right angles to the joint edges, the locking groove being open towards a rear side of the panel and the locking element protrudes vertically from a locking strip, wherein the flexible tongue is formed of a separated material and is flexible and resilient such that two panels can be mechanically joined by displacement of said two panels vertically towards each other, while at least a part of the flexible tongue at said second opposite joint edge is resiliently displaced horizontally, until said adjacent edges of the two panels are brought into engagement with each other horizontally, the flexible tongue at said second opposite joint edge is then displaced towards its initial position and against a wall of the first groove at said first joint edge, wherein the flexible tongue is an extruded section with a groove portion located in the second groove and a projecting portion located outside the second groove, wherein said groove portion is resilient and characterised in that said groove portion is punched, and that the groove portion is provided with several recesses.
An in situ concrete safety barrier, comprising an in situ concrete body provided with an essentially continuous reinforcement, wherein at least one groove extends substantially perpendicularly to the longitudinal extension of the in situ concrete safety barrier on a surface of the in situ concrete body, characterized in that at least one reinforcement reinforcing part is arranged in the in situ concrete body in the region of the at least one groove, and the reinforcement reinforcing part forms a local additional reinforcement which reinforces the in situ concrete body in the region of the groove in addition to the continuous reinforcement.
A wireless charging device, wherein the wireless charging device comprises a housing, an induction coil, a ferrite, a printed circuit board, PCB, and a fan; the housing comprises a first surface, a second surface and a bottom surface, the second surface connects the first surface and the bottom surface, a protrusion is disposed on the first surface, and the protrusion is configured to support a to-be-charged device; the induction coil is attached to the ferrite, and the PCB, and the fan are accommodated inside the housing, the ferrite is disposed close to the first surface; at least one first air guiding opening and at least one second air guiding opening are disposed on the housing, the at least one second air guide opening is located on the second surface and close to the bottom surface; a groove is provided on the first surface, the groove is an annular groove, a hole is disposed on the annular groove to serve as the first air guiding opening, and the annular groove is placed close to the ferrite; and the protrusion is configured to: support the to-be-charged device, and leave a gap between the to-be-charged device and the first surface when the to-be-charged device is installed on the wireless charging device. the housing comprises a first surface, a second surface and a bottom surface, the second surface connects the first surface and the bottom surface, a protrusion is disposed on the first surface, and the protrusion is configured to support a to-be-charged device; the induction coil is attached to the ferrite, and the PCB, and the fan are accommodated inside the housing, the ferrite is disposed close to the first surface; at least one first air guiding opening and at least one second air guiding opening are disposed on the housing, the at least one second air guide opening is located on the second surface and close to the bottom surface; a groove is provided on the first surface, the groove is an annular groove, a hole is disposed on the annular groove to serve as the first air guiding opening, and the annular groove is placed close to the ferrite; and the protrusion is configured to: support the to-be-charged device, and leave a gap between the to-be-charged device and the first surface when the to-be-charged device is installed on the wireless charging device.
Method for calibrating a planar drive which comprises a stator and a rotor which can move with respect to the stator in an x direction and in a y direction, wherein the x direction and the y direction span a movement plane of the rotor, and wherein the planar drive comprises the following further components: - a first x drive, arranged on the rotor, for driving the rotor in the x direction; - a first x actuation unit; - a second x drive for driving the rotor in the x direction, wherein the second x drive is arranged on the rotor, offset in the y direction with respect to the first x drive; - a second x actuation unit; - a y drive for driving the rotor in the y direction; and - a y sensor for determining the position of the rotor with respect to the stator in the y direction, wherein the y sensor is arranged on the rotor spaced apart from the y drive in the movement plane in the x direction; characterized in that the method comprises the following steps: - actuating the first x drive by means of the first x actuation unit to move the rotor in the x direction, and actuating the second x drive by means of the second x actuation unit to move the rotor in the x direction, wherein the first x drive is actuated in a positionally synchronous fashion with a first offset in the x direction with respect to the second x drive, and where a first signal of the y sensor is recorded as a function of the position of the rotor in the x direction; and - calibrating the first x actuation unit and the second x actuation unit in a first calibration step by evaluating a variable to be processed in the first x actuation unit and a variable to be processed in the second x actuation unit, with the first signal of the y sensor. - a first x drive, arranged on the rotor, for driving the rotor in the x direction; - a first x actuation unit; - a second x drive for driving the rotor in the x direction, wherein the second x drive is arranged on the rotor, offset in the y direction with respect to the first x drive; - a second x actuation unit; - a y drive for driving the rotor in the y direction; and - a y sensor for determining the position of the rotor with respect to the stator in the y direction, wherein the y sensor is arranged on the rotor spaced apart from the y drive in the movement plane in the x direction; - actuating the first x drive by means of the first x actuation unit to move the rotor in the x direction, and actuating the second x drive by means of the second x actuation unit to move the rotor in the x direction, wherein the first x drive is actuated in a positionally synchronous fashion with a first offset in the x direction with respect to the second x drive, and where a first signal of the y sensor is recorded as a function of the position of the rotor in the x direction; and - calibrating the first x actuation unit and the second x actuation unit in a first calibration step by evaluating a variable to be processed in the first x actuation unit and a variable to be processed in the second x actuation unit, with the first signal of the y sensor.
A system for sharing a power delivery controller, comprising: a plurality of ports (204A, 204B, 204C, 204D); and the power delivery controller communicatively coupled to the plurality of ports (204A, 204B, 204C, 204D), and the power delivery controller is to: rotate between the plurality of ports (204A, 204B, 204C, 204D) to determine a port of the plurality of ports (204A, 204B, 204C, 204D) that has access to the power delivery controller, including to: (a) send a first message to a first port of the plurality of ports (204A, 204B, 204C, 204D); (b) remain connected to the first port and enable power delivery to the first port for a period of time in response to a return message from the first port; and (c) if there is no predetermined return message from the first port or on expiry of the period of time, rotate to a second port of the plurality of ports (204A, 204B, 204C, 204D) and repeat (a) to (c) with the second port as the first port. a plurality of ports (204A, 204B, 204C, 204D); and the power delivery controller communicatively coupled to the plurality of ports (204A, 204B, 204C, 204D), and the power delivery controller is to: rotate between the plurality of ports (204A, 204B, 204C, 204D) to determine a port of the plurality of ports (204A, 204B, 204C, 204D) that has access to the power delivery controller, including to: (a) send a first message to a first port of the plurality of ports (204A, 204B, 204C, 204D); (b) remain connected to the first port and enable power delivery to the first port for a period of time in response to a return message from the first port; and (c) if there is no predetermined return message from the first port or on expiry of the period of time, rotate to a second port of the plurality of ports (204A, 204B, 204C, 204D) and repeat (a) to (c) with the second port as the first port. (a) send a first message to a first port of the plurality of ports (204A, 204B, 204C, 204D); (b) remain connected to the first port and enable power delivery to the first port for a period of time in response to a return message from the first port; and (c) if there is no predetermined return message from the first port or on expiry of the period of time, rotate to a second port of the plurality of ports (204A, 204B, 204C, 204D) and repeat (a) to (c) with the second port as the first port.
A computer program product for facilitating processing in a computing environment, said computer program product comprising: a computer readable storage medium readable by a processing circuit and storing instructions which, when the program is executed by the processing circuit, perform a method comprising: obtaining an instruction to perform an action related to one or more guarded storage controls; and executing the instruction to perform the action, the executing comprising: obtaining, from a location, content associated with the one or more guarded storage controls, the one or more guarded storage controls to control operation of a guarded storage facility used to guard a portion of memory, and wherein the one or more guarded storage controls comprise a designation register used to designate an area of memory to be guarded, a mask register indicating whether one or more sections of the area of memory are to be guarded, and a parameter list address register to designate a location of one or more attributes of a guarded storage event, wherein the guarded storage event is an event that occurs when a program attempts to access an address in a guarded section thereby protecting the addresses within the guarded section; and performing the action using the content, wherein the action comprises a load or a store, wherein based on the action being the load, the obtaining the content comprises obtaining the content from memory, and the performing the action comprises loading the content obtained from memory into the one or more guarded storage controls, and based on the action being the store, the obtaining the content comprises obtaining the content from the one or more guarded storage controls, and the performing the action comprises storing the content obtained from the one or more guarded storage controls into memory. obtaining an instruction to perform an action related to one or more guarded storage controls; and executing the instruction to perform the action, the executing comprising: obtaining, from a location, content associated with the one or more guarded storage controls, the one or more guarded storage controls to control operation of a guarded storage facility used to guard a portion of memory, and wherein the one or more guarded storage controls comprise a designation register used to designate an area of memory to be guarded, a mask register indicating whether one or more sections of the area of memory are to be guarded, and a parameter list address register to designate a location of one or more attributes of a guarded storage event, wherein the guarded storage event is an event that occurs when a program attempts to access an address in a guarded section thereby protecting the addresses within the guarded section; and performing the action using the content, wherein the action comprises a load or a store,
A process of manufacturing pharmaceutical formulations of crystalline beta-L-2'-deoxythymidine having an endotherm of 190°C, and having less than 0.1 percent volatiles measured at 175°C, comprising: (a) crystallizing two or more batches of beta-L-2'-deoxythymidine from solution; (b) measuring IR spectrometry of the batches; (c) selecting for further processing the batches that do not display peak breadth consistent with the presence of amorphous L-dT between 2200-2600, 1600-1800, 1000-1500, or 500-1000cm -1 from a known IR spectra for crystalline beta-L-2'-deoxythymidine; and (d) formulating said selected batches into pharmaceutical formulations of beta-L-2'-deoxythymidine. (a) crystallizing two or more batches of beta-L-2'-deoxythymidine from solution; (b) measuring IR spectrometry of the batches; (c) selecting for further processing the batches that do not display peak breadth consistent with the presence of amorphous L-dT between 2200-2600, 1600-1800, 1000-1500, or 500-1000cm -1 from a known IR spectra for crystalline beta-L-2'-deoxythymidine; and (d) formulating said selected batches into pharmaceutical formulations of beta-L-2'-deoxythymidine.
An electrostatic spray apparatus comprising: an electrostatic spray gun having a first external surface and a second external surface; a first electrode disposed on the first external surface and configured to ionize a material and to generate a first electric field between the first electrode and a grounded object; and a second electrode disposed on the second external surface of the apparatus and configured to generate a second electric field between the second electrode and a grounded object, wherein the first electrode and the second electrode are connected to a charge multiplier to receive a charge, wherein the first electrode is a needle electrode, and wherein the second electrode has a conical shape. an electrostatic spray gun having a first external surface and a second external surface; a first electrode disposed on the first external surface and configured to ionize a material and to generate a first electric field between the first electrode and a grounded object; and a second electrode disposed on the second external surface of the apparatus and configured to generate a second electric field between the second electrode and a grounded object, wherein the first electrode and the second electrode are connected to a charge multiplier to receive a charge, wherein the first electrode is a needle electrode, and wherein the second electrode has a conical shape.
A wall bend fixture for installing a pipe assembly in a structure, the wall bend fixture being adapted to be mounted in the structure and guide at least an inner pipe of the pipe assembly through the structure from a first side of the structure to a second side of the structure, the wall bend fixture comprising: - a housing defining a conduit for receiving and guiding the pipe assembly, the conduit comprising: ∘ a first end portion configured to be located at the first side of the structure when the wall bend fixture is mounted in the structure, wherein the first end portion comprises a first opening configured to receive the pipe assembly at the first side, ∘ a second end portion configured to be located at the second side of the structure when the wall bend fixture is mounted in the structure, wherein the second end portion comprises a second opening configured to deliver the inner pipe at the second side, ∘ a bent portion extending between the first end portion and the second end portion, characterized in that the fixture further comprises - a locking member configured to mechanically lock an outer pipe of the pipe assembly within the conduit, - a sealing member configured to provide a seal between the outer pipe and an inner wall of the housing in the first end portion of the conduit. - a housing defining a conduit for receiving and guiding the pipe assembly, the conduit comprising: ∘ a first end portion configured to be located at the first side of the structure when the wall bend fixture is mounted in the structure, wherein the first end portion comprises a first opening configured to receive the pipe assembly at the first side, ∘ a second end portion configured to be located at the second side of the structure when the wall bend fixture is mounted in the structure, wherein the second end portion comprises a second opening configured to deliver the inner pipe at the second side, ∘ a bent portion extending between the first end portion and the second end portion, ∘ a first end portion configured to be located at the first side of the structure when the wall bend fixture is mounted in the structure, wherein the first end portion comprises a first opening configured to receive the pipe assembly at the first side, ∘ a second end portion configured to be located at the second side of the structure when the wall bend fixture is mounted in the structure, wherein the second end portion comprises a second opening configured to deliver the inner pipe at the second side, ∘ a bent portion extending between the first end portion and the second end portion, - a locking member configured to mechanically lock an outer pipe of the pipe assembly within the conduit, - a sealing member configured to provide a seal between the outer pipe and an inner wall of the housing in the first end portion of the conduit.