mhurhangee/ep-ind-claims huggingface dataset:
A laundry dryer comprising a drum wherein the laundry is placed, a condenser providing the drying cycle air to be dehumidified, a reservoir wherein the condensate water leaving the condenser is collected and the level is detected, an inlet opening disposed on the wall of the reservoir, providing the water received from the condenser to be transferred to the reservoir, a tank whereto the water collected in the reservoir is transferred, a level detection unit disposed in the reservoir which provides the detection of the level of condensate water before transferring to the tank, characterized by a guide disposed in the reservoir, extending from the inlet opening to the interior of the reservoir and forming a barrier between the water entering from the inlet opening into the reservoir and the level detection unit.
An apparatus comprising: optical amplifiers (24, 26) optically coupled together, each optical amplifier having a gain; detectors (56, 44, 72, 50) for detecting the level of an input light input to each of the optical amplifiers (24, 26) and the level of an output light output from each of the optical amplifiers (24, 26); a variable attenuator optically coupled between the optical amplifiers (24, 26); and a control circuit (66; 76) arranged to control the variable attenuator, based on the levels of the input lights and the output lights detected by the detectors (56, 44, 72, 50), so that a sum of the gains of the optical amplifiers (24, 26) becomes constant. optical amplifiers (24, 26) optically coupled together, each optical amplifier having a gain; detectors (56, 44, 72, 50) for detecting the level of an input light input to each of the optical amplifiers (24, 26) and the level of an output light output from each of the optical amplifiers (24, 26); a variable attenuator optically coupled between the optical amplifiers (24, 26); and a control circuit (66; 76) arranged to control the variable attenuator, based on the levels of the input lights and the output lights detected by the detectors (56, 44, 72, 50), so that a sum of the gains of the optical amplifiers (24, 26) becomes constant.
A semiconductor laser configured for generating an optical pulse by Q-switch operation, the semiconductor laser being an edge-emitting laser resonator and comprising, on a semiconductor substrate: a first semiconductor layer of a first conductivity type; an active layer; a second semiconductor layer of the first conductivity type; a third semiconductor layer of a second conductivity type, in order; and a ridge part formed in the second semiconductor layer and the third semiconductor layer, and extending in a stacked in-plane direction and in a resonator direction between a front end surface and a rear end surface of the laser resonator, the ridge part having a structure in which a plurality of gain regions and a plurality of Q-switch regions are each disposed alternately with each of separation regions being interposed therebetween in an extending direction of the ridge part, the separation regions each having a separation groove that separates from each other, by a space, the gain region and the Q-switch region adjacent to each other, the separation groove having a bottom surface at a position, in the second semiconductor layer, higher than a part of the second semiconductor layer corresponding to a foot of each of both sides of the ridge part, wherein the semiconductor laser further comprises: a gain electrode in contact with the top surface of the ridge part and assigned to each of the gain regions; and a Q-switch electrode in contact with the top surface of the ridge part and assigned to each of the Q-switch regions. a first semiconductor layer of a first conductivity type; an active layer; a second semiconductor layer of the first conductivity type; a third semiconductor layer of a second conductivity type, in order; and a ridge part formed in the second semiconductor layer and the third semiconductor layer, and extending in a stacked in-plane direction and in a resonator direction between a front end surface and a rear end surface of the laser resonator, the ridge part having a structure in which a plurality of gain regions and a plurality of Q-switch regions are each disposed alternately with each of separation regions being interposed therebetween in an extending direction of the ridge part, the separation regions each having a separation groove that separates from each other, by a space, the gain region and the Q-switch region adjacent to each other, the separation groove having a bottom surface at a position, in the second semiconductor layer, higher than a part of the second semiconductor layer corresponding to a foot of each of both sides of the ridge part, wherein the semiconductor laser further comprises: a gain electrode in contact with the top surface of the ridge part and assigned to each of the gain regions; and a Q-switch electrode in contact with the top surface of the ridge part and assigned to each of the Q-switch regions. a gain electrode in contact with the top surface of the ridge part and assigned to each of the gain regions; and a Q-switch electrode in contact with the top surface of the ridge part and assigned to each of the Q-switch regions.
An apparatus comprising: an object approach determining unit (11,13) configured to determine an approach of an object based on received data; and a display control unit configured to control a display to display a plurality of selectable icons, and the display control unit is configured to control the display to change the display of the plurality of selectable icons to display only a portion of the plurality of selectable icons when the object approach determining unit determines that the object is close to the display, characterised in that the portion of the plurality of selectable icons is a subset of selectable icons all belonging to a same category and is based on a direction of approach of the object. an object approach determining unit (11,13) configured to determine an approach of an object based on received data; and a display control unit configured to control a display to display a plurality of selectable icons, and the display control unit is configured to control the display to change the display of the plurality of selectable icons to display only a portion of the plurality of selectable icons when the object approach determining unit determines that the object is close to the display, characterised in that the portion of the plurality of selectable icons is a subset of selectable icons all belonging to a same category and is based on a direction of approach of the object.
An image display device comprising: a display that displays at least one of a visible image of an object and a thermal image that indicates temperature information of the object; a control unit that controls the display; and an operation unit that allows an input of a user's operation of enlarging or reducing an image to be displayed on the display, characterised in that the control unit causes the display to display one of a first image, a second image, and a third image, the first image including the thermal image and the visible image, the second image including a thermal image with a numerical value indicating a temperature being superimposed for each predetermined region on the thermal image in the second image, the third image including a thermal image with an edge image extracted from the visible image being superimposed on the thermal image in the third image, and when the control unit increases an enlargement rate of the image to be displayed on the display according to the user's operation of the operation unit, the control unit changes the image to be displayed on the display in an order of the first image, the third image, and the second image, wherein the thermal image of the third image is more enlarged than the thermal image of the first image and the thermal image of the second image is more enlarged than the thermal image of the third image. a display that displays at least one of a visible image of an object and a thermal image that indicates temperature information of the object; a control unit that controls the display; and an operation unit that allows an input of a user's operation of enlarging or reducing an image to be displayed on the display, characterised in that the control unit causes the display to display one of a first image, a second image, and a third image, the first image including the thermal image and the visible image, the second image including a thermal image with a numerical value indicating a temperature being superimposed for each predetermined region on the thermal image in the second image, the third image including a thermal image with an edge image extracted from the visible image being superimposed on the thermal image in the third image, and when the control unit increases an enlargement rate of the image to be displayed on the display according to the user's operation of the operation unit, the control unit changes the image to be displayed on the display in an order of the first image, the third image, and the second image, wherein the thermal image of the third image is more enlarged than the thermal image of the first image and the thermal image of the second image is more enlarged than the thermal image of the third image.
A surface coated cutting tool having surfaces including a rake face and a flank face and a cutting edge defined by a boundary portion between the rake face and the flank face, wherein the boundary portion consists of a ridgeline defining a boundary between the rake face and the flank face and a portion in the vicinity of the ridgeline in the rake face and the flank face, the surface coated cutting tool comprising: a substrate; and a coating which covers the surfaces of the substrate, the coating having a TiAlN layer having an NaCl type crystal structure, and relation of 0.65 < XR ≤ 0.9, 0.65 < XF ≤ 0.9, 0.4 ≤ XE ≤ 0.7, XR-XE ≥ 0.2, and XF-XE ≥ 0.2 being satisfied, with a composition of the TiAlN layer in a cutting edge region located in the cutting edge being expressed as Ti 1-XE Al XE N, a composition of the TiAlN layer in a rake face region located in the rake face being expressed as Ti 1-XR Al XR N, and a composition of the TiAlN layer in a flank face region located in the flank face being expressed as Ti 1-XF Al XF N. a substrate; and a coating which covers the surfaces of the substrate, the coating having a TiAlN layer having an NaCl type crystal structure, and relation of 0.65 < XR ≤ 0.9, 0.65 < XF ≤ 0.9, 0.4 ≤ XE ≤ 0.7, XR-XE ≥ 0.2, and XF-XE ≥ 0.2 being satisfied, with a composition of the TiAlN layer in a cutting edge region located in the cutting edge being expressed as Ti 1-XE Al XE N, a composition of the TiAlN layer in a rake face region located in the rake face being expressed as Ti 1-XR Al XR N, and a composition of the TiAlN layer in a flank face region located in the flank face being expressed as Ti 1-XF Al XF N.
A composition for the preparation of a polymeric foam, and in particular a masterbatch composition, comprising (i) an at least essentially amorphous polymer resin comprising at least 80 % by weight of an at least essentially amorphous polymer selected from the group consisting of polystyrene, polystyrene copolymers, and mixtures or blends thereof, wherein the at least essentially amorphous polymer has a portion of 5 wt.-% or less of a crystalline region and at least 95 wt.-% of an amorphous region, wherein "amorphous" means that there is no melting point and only a glass transition temperature point measurable by DSC; and (ii) a nucleating agent of formula wherein each R independently is selected from the group consisting of hydrogen, C 1 -C 10 -alkyl, C 5 -C 10 -cycloalkyl, phenyl, phenyl substituted with 1, 2, 3 or 4 C 1 -C 4 -alkyl groups, and C 1 -C 4 -alkylene-phenyl. (i) an at least essentially amorphous polymer resin comprising at least 80 % by weight of an at least essentially amorphous polymer selected from the group consisting of polystyrene, polystyrene copolymers, and mixtures or blends thereof, wherein the at least essentially amorphous polymer has a portion of 5 wt.-% or less of a crystalline region and at least 95 wt.-% of an amorphous region, wherein "amorphous" means that there is no melting point and only a glass transition temperature point measurable by DSC; and (ii) a nucleating agent of formula wherein each R independently is selected from the group consisting of hydrogen, C 1 -C 10 -alkyl, C 5 -C 10 -cycloalkyl, phenyl, phenyl substituted with 1, 2, 3 or 4 C 1 -C 4 -alkyl groups, and C 1 -C 4 -alkylene-phenyl.
Luminaire for illuminating a workstation, comprising a laptop positioned on a support surface, comprising: a plate-like lighting body comprising holding or support means arranged thereon, which are designed to keep the lighting body substantially vertically aligned, first light emitting means which are arranged on a front side formed by a flat side of the lighting body and which are designed to emit light via a frame-like surface area, in particular via a U- or C-shaped surface area, the luminaire having further light emitting means on a rear side of the lighting body opposite the front side, which are designed to emit light in an opposite direction, characterized in that the luminaire has further light emitting means on a narrow side connecting the front side and rear side of the lighting body, which narrow side is opposite the support surface and points substantially upward. a plate-like lighting body comprising holding or support means arranged thereon, which are designed to keep the lighting body substantially vertically aligned, first light emitting means which are arranged on a front side formed by a flat side of the lighting body and which are designed to emit light via a frame-like surface area, in particular via a U- or C-shaped surface area, the luminaire having further light emitting means on a rear side of the lighting body opposite the front side, which are designed to emit light in an opposite direction, characterized in that the luminaire has further light emitting means on a narrow side connecting the front side and rear side of the lighting body, which narrow side is opposite the support surface and points substantially upward.
Gripping device for battery modules, comprising a crossbeam with a longitudinal direction of extension, a first gripping element, which comprises a first securing element and a first pressure plate, and a second gripping element, which comprises a second securing element and a second pressure plate, wherein the securing elements are designed such that the gripping elements can be secured onto the crossbeam, wherein the gripping elements are designed such that a battery module located between the gripping elements can be gripped, wherein when gripping a battery module a first side surface of the battery module can be contacted by the first pressure plate and a second side surface of the battery module, which is opposite the first side surface, can be contacted by the second pressure plate, wherein the gripping elements and the crossbeam are designed such that the gripping elements can be displaced along the longitudinal direction of extension of the crossbeam and a position of the gripping elements along the longitudinal direction of extension of the crossbeam can be fixed and at least the first gripping element comprises at least one first activating element, by means of the activation of which the first pressure plate of the first gripping element can be adjusted in position relative to the first securing element such that pressure can be exerted on the first and second side surface of a battery module located between the first and second pressure plate, characterised in that the first gripping element comprises a second activating element, by means of which the first pressure plate of the first gripping element can be adjusted in position relative to the first securing element such that pressure can be exerted on the first and second side surface of a battery module located between the first and second pressure plate, wherein the exertable pressure can be adjusted continually by activating the second activating element.
Grinding roller having a cylindrical roller body and at least one side wall which is arranged on an end side of the roller body and non-rotationally fixed to the roller body, and which protrudes beyond the outer casing surface of the roller body on the outside, wherein the connection between the roller body and the side wall is formed by means of at least one screw connection, wherein, in the unconnected state, the side wall bears on the end wall of the roller body in a first section and, in a second section, a gap which, in the connected state, is at least partly eliminated as a result of elastic deformation of the side wall, is formed between the side wall and the end wall of the roller body, characterized in that at least one further section (16, 17) is provided, in which, even in the connected state, a gap is formed between the side wall and the end wall of the roller body.
A wireless communication system, comprising: a modulation transmitter configured to wirelessly communicate with a plurality of user terminals via a plurality of carriers included in a beam that is subject to a per-beam power budget; and a controller configured to: allocate the per-beam power budget across a total number of resource elements that are scheduled for use across the plurality of carriers, wherein a respective portion of the per-beam power budget is allocated to each of the plurality of carriers, the total number of scheduled resource elements being less than a total number of available resource elements across the plurality of carriers, each available resource element corresponding to a respective, single subcarrier over a duration of a respective, single modulation symbol, and the per-beam power budget being a per-beam power limit; and control resource elements used by the modulation transmitter to communicate with the plurality of user terminals in accordance with the allocation of the per-beam power budget. a modulation transmitter configured to wirelessly communicate with a plurality of user terminals via a plurality of carriers included in a beam that is subject to a per-beam power budget; and a controller configured to: allocate the per-beam power budget across a total number of resource elements that are scheduled for use across the plurality of carriers, wherein a respective portion of the per-beam power budget is allocated to each of the plurality of carriers, the total number of scheduled resource elements being less than a total number of available resource elements across the plurality of carriers, each available resource element corresponding to a respective, single subcarrier over a duration of a respective, single modulation symbol, and the per-beam power budget being a per-beam power limit; and control resource elements used by the modulation transmitter to communicate with the plurality of user terminals in accordance with the allocation of the per-beam power budget. allocate the per-beam power budget across a total number of resource elements that are scheduled for use across the plurality of carriers, wherein a respective portion of the per-beam power budget is allocated to each of the plurality of carriers, the total number of scheduled resource elements being less than a total number of available resource elements across the plurality of carriers, each available resource element corresponding to a respective, single subcarrier over a duration of a respective, single modulation symbol, and the per-beam power budget being a per-beam power limit; and control resource elements used by the modulation transmitter to communicate with the plurality of user terminals in accordance with the allocation of the per-beam power budget.
A cut-resistant composite yarn structure, comprising: a first core-spun yarn comprising a first cut-resistant core filament and first staple fibers spun over the first cut-resistant core filament; a covering yarn comprising a second cut-resistant core filament and a first covering layer wound over the second cut-resistant core filament, where the first covering layer comprises a first filament; a second core-spun yarn comprising a third cut-resistant core filament and second staple fibers spun over the third cut-resistant core filament; and a second covering layer wound over the first core-spun yarn, the second core-spun yarn, and the covering yarn, where the second covering layer comprises a second filament. a first core-spun yarn comprising a first cut-resistant core filament and first staple fibers spun over the first cut-resistant core filament; a covering yarn comprising a second cut-resistant core filament and a first covering layer wound over the second cut-resistant core filament, where the first covering layer comprises a first filament; a second core-spun yarn comprising a third cut-resistant core filament and second staple fibers spun over the third cut-resistant core filament; and a second covering layer wound over the first core-spun yarn, the second core-spun yarn, and the covering yarn, where the second covering layer comprises a second filament.
A contactor control apparatus, comprising an electrical signal detection unit, a control unit, a contactor and a first execution unit, wherein the electrical signal detection unit is configured to: detect an electrical signal on a loop, and send the detected electrical signal to the control unit; the control unit is configured to: generate a control signal based on the received electrical signal, and send the control signal to the first execution unit; the contactor is connected to the loop; the first execution unit is configured to control the contactor to be closed or opened based on the received control signal, wherein when the contactor is closed, the loop is connected, and when the contactor is opened, the loop is disconnected; characterized in that the contactor control apparatus is configured to protect the loop when the control unit is faulty, wherein the contactor control apparatus further comprises a protection unit and a second execution unit, wherein the protection unit is configured to detect a current value on the loop when the contactor is closed, wherein an opening instruction is sent to the second execution unit when the current value reaches a trip threshold; and the second execution unit is configured to open the contactor when receiving the opening instruction. the electrical signal detection unit is configured to: detect an electrical signal on a loop, and send the detected electrical signal to the control unit; the control unit is configured to: generate a control signal based on the received electrical signal, and send the control signal to the first execution unit; the contactor is connected to the loop; the first execution unit is configured to control the contactor to be closed or opened based on the received control signal, wherein when the contactor is closed, the loop is connected, and when the contactor is opened, the loop is disconnected; characterized in that the contactor control apparatus is configured to protect the loop when the control unit is faulty, wherein the contactor control apparatus further comprises a protection unit and a second execution unit, wherein the protection unit is configured to detect a current value on the loop when the contactor is closed, wherein an opening instruction is sent to the second execution unit when the current value reaches a trip threshold; and the second execution unit is configured to open the contactor when receiving the opening instruction.