mhurhangee/ep-ind-claims huggingface dataset:
An illumination device comprising: a. a plurality of light emitting diodes (LEDs) arranged to emit LED emission; b. a translucent exit window having an upstream exit window face and a downstream exit window face; c. n transmissive windows (300, 300,... 300(n)) arranged downstream of the plurality of LEDs and upstream of the translucent exit window, wherein n is equal to or larger than 1, each transmissive window having an upstream transmissive window face and a downstream transmissive window face; d. k luminescent material layers (400, 400,...400(k)), wherein k is equal to or larger than 2, wherein the k luminescent material layers (400, 400,...400(k)) are arranged downstream of the plurality of LEDs and upstream of the translucent exit window, characterised in that the k luminescent material layers (400, 400,...400(k)) are spatially separated from the plurality of LEDs, and wherein the plurality of LEDs and the luminescent material layers (400 400,...400(k)) are arranged to generate light of a predetermined color, wherein the translucent exit window is arranged to transmit at least part of the light; e. a final cavity formed downstream from a first transmissive window (300) and upstream from the translucent exit window and enclosed by the first transmissive window and the translucent exit window. a. a plurality of light emitting diodes (LEDs) arranged to emit LED emission; b. a translucent exit window having an upstream exit window face and a downstream exit window face; c. n transmissive windows (300, 300,... 300(n)) arranged downstream of the plurality of LEDs and upstream of the translucent exit window, wherein n is equal to or larger than 1, each transmissive window having an upstream transmissive window face and a downstream transmissive window face; d. k luminescent material layers (400, 400,...400(k)), wherein k is equal to or larger than 2, wherein the k luminescent material layers (400, 400,...400(k)) are arranged downstream of the plurality of LEDs and upstream of the translucent exit window, characterised in that the k luminescent material layers (400, 400,...400(k)) are spatially separated from the plurality of LEDs, and wherein the plurality of LEDs and the luminescent material layers (400 400,...400(k)) are arranged to generate light of a predetermined color, wherein the translucent exit window is arranged to transmit at least part of the light; e. a final cavity formed downstream from a first transmissive window (300) and upstream from the translucent exit window and enclosed by the first transmissive window and the translucent exit window.
A liquid crystal display device, comprising: a liquid crystal panel and a backlight module, wherein the liquid crystal panel is hung onto the backlight module when the LCD device is placed in a vertical state; wherein at least one hanging post is disposed on a side face of the liquid crystal panel which contacts the backlight module, wherein the backlight module comprises a mold frame, wherein at least one hanging groove for receiving the hanging post is disposed on a side face of the mold frame which contacts the liquid crystal panel; characterized in that a pad is disposed between bottom contact surfaces of the hanging post and the hanging groove, and the bottom contact surfaces contact with each other in a vertical direction. a liquid crystal panel and a backlight module, wherein the liquid crystal panel is hung onto the backlight module when the LCD device is placed in a vertical state; wherein at least one hanging post is disposed on a side face of the liquid crystal panel which contacts the backlight module, wherein the backlight module comprises a mold frame, wherein at least one hanging groove for receiving the hanging post is disposed on a side face of the mold frame which contacts the liquid crystal panel; characterized in that a pad is disposed between bottom contact surfaces of the hanging post and the hanging groove, and the bottom contact surfaces contact with each other in a vertical direction.
A sensor device for sensing particles, the sensor device being configured as a biosensor and comprising - a substrate that is a semiconductor substrate; and - a sensor active region arranged in and/or on the substrate and being sensitive to the presence of the particles to be detected, wherein the sensor active region comprises - a metallic carrier (103, 105, 304, 440); and - a self assembled monolayer positioned on the metallic carrier (103, 105, 304, 440), and wherein the metallic carrier comprises comb-shaped interdigitated electrodes (103, 105, 303, 305) having a plurality of fingers extending from a base strip, characterized in that the sensor device comprises a heater and/or a temperature sensor, wherein the metallic carrier additionally comprises a meander-shaped line having a plurality of loops; and wherein the fingers of the interdigitated electrodes (303, 305) extend between the loops. - a substrate that is a semiconductor substrate; and - a sensor active region arranged in and/or on the substrate and being sensitive to the presence of the particles to be detected, - a metallic carrier (103, 105, 304, 440); and - a self assembled monolayer positioned on the metallic carrier (103, 105, 304, 440), and
Data cable grommet, in particular optical waveguide cable grommet, comprising a main body composed of an elastic material, wherein a plurality of recesses for receiving and sealing off in each case one data cable are made in the main body, the said recesses extending in the longitudinal direction of the said main body, wherein slots (14, 24) are made in a lateral surface (12, 22) of the main body (11, 21), the said slots extending in the longitudinal direction of the said main body, and wherein each of the slots (14, 24) issues into in each case one of the recesses (13, 23), so that the data cables can be inserted into the recesses (13, 23) via the slots (14, 24) in the radial direction of the main body, characterized in that the recesses (13, 23) are conically contoured at least in sections, as seen in the longitudinal direction of the said recesses.
An injection molding machine (10, 10A) comprising: a drive source; a drive unit (Sb, 124) configured to be driven by the drive source; a driven unit (22, 12, 113) configured to be driven by the drive source via the drive unit; a correction command generation unit configured to generate a correction command (y in) by correcting a command value received as input (y R); and a feedback control unit configured to feed a control input (f in) to the drive unit based on the correction command and a feedback value (y FB) from the drive unit or the driven unit, characterized in that the injection molding machine further comprises: a filter unit (P 21) configured to perform filtering on the command value received as input, wherein the correction command generation unit corrects the command value from the filter unit for generating the correction command. a drive source; a drive unit (Sb, 124) configured to be driven by the drive source; a driven unit (22, 12, 113) configured to be driven by the drive source via the drive unit; a correction command generation unit configured to generate a correction command (y in) by correcting a command value received as input (y R); and a feedback control unit configured to feed a control input (f in) to the drive unit based on the correction command and a feedback value (y FB) from the drive unit or the driven unit, characterized in that the injection molding machine further comprises: a filter unit (P 21) configured to perform filtering on the command value received as input, wherein the correction command generation unit corrects the command value from the filter unit for generating the correction command. a filter unit (P 21) configured to perform filtering on the command value received as input, wherein the correction command generation unit corrects the command value from the filter unit for generating the correction command.
An apparatus comprising: an automated cover handling device having a robotic head arranged to grip and release a Micro-chamber cover for positioning and removal of the Micro-chamber cover over a chemical and/or biological sample on a substrate, placement of the cover over the sample creating a Micro-chamber; a temperature control assembly operable in combination with the automated cover handling device, the temperature control assembly having active heating and cooling components that are independently programmable for individual substrates of a plurality of substrates; and a sealing assembly operable to dispense sealant for sealing the Micro-chamber during a temperature control cycle; wherein the robotic head is configured to grip and release Micro-chamber covers of one or more different sizes, shapes and materials. an automated cover handling device having a robotic head arranged to grip and release a Micro-chamber cover for positioning and removal of the Micro-chamber cover over a chemical and/or biological sample on a substrate, placement of the cover over the sample creating a Micro-chamber; a temperature control assembly operable in combination with the automated cover handling device, the temperature control assembly having active heating and cooling components that are independently programmable for individual substrates of a plurality of substrates; and a sealing assembly operable to dispense sealant for sealing the Micro-chamber during a temperature control cycle; wherein the robotic head is configured to grip and release Micro-chamber covers of one or more different sizes, shapes and materials.
A method in a base station for enabling a User Equipment, UE, to transmit a demodulation reference signal, DMRS, when being served by the base station, the method comprising: - assigning (2:2, 302) at least one of a UE-specific base sequence and a UE-specific cyclic shift hopping pattern to the UE, - sending (2:3, 304) one or more configuration parameter(s) to the UE, said configuration parameter(s) indicating the assigned at least one of said UE-specific base sequence and UE-specific cyclic shift hopping pattern, to enable the UE to use said configuration parameter(s) to generate and transmit the demodulation reference signal based on the at least one of said UE-specific base sequence and UE-specific cyclic shift hopping pattern, wherein said one or more configuration parameter(s) comprises at least one of a UE-specific base sequence parameter Δ SS,UE which the UE can use for determining said UE-specific base sequence and a UE-specific cyclic shift hopping parameter Δ CS,UE which the UE can use for determining said UE-specific cyclic shift hopping pattern, and wherein the UE-specific base sequence is defined by a UE-specific sequence shift pattern f SS,UE PUSCH for a PUSCH channel and the UE-specific cyclic shift hopping pattern is defined by a UE-specific cyclic shift random generator initialization parameter C initi,UE, and wherein said UE-specific sequence shift pattern f SS,UE PUSCH can be determined based on the UE-specific base sequence parameter Δ SS,UE, and said UE-specific cyclic shift random generator initialization parameter C initi,UE can be determined based on the UE-specific cyclic shift hopping parameter Δ CS,UE. - assigning (2:2, 302) at least one of a UE-specific base sequence and a UE-specific cyclic shift hopping pattern to the UE, - sending (2:3, 304) one or more configuration parameter(s) to the UE, said configuration parameter(s) indicating the assigned at least one of said UE-specific base sequence and UE-specific cyclic shift hopping pattern, to enable the UE to use said configuration parameter(s) to generate and transmit the demodulation reference signal based on the at least one of said UE-specific base sequence and UE-specific cyclic shift hopping pattern, wherein said one or more configuration parameter(s) comprises at least one of a UE-specific base sequence parameter Δ SS,UE which the UE can use for determining said UE-specific base sequence and a UE-specific cyclic shift hopping parameter Δ CS,UE which the UE can use for determining said UE-specific cyclic shift hopping pattern, and wherein the UE-specific base sequence is defined by a UE-specific sequence shift pattern f SS,UE PUSCH for a PUSCH channel and the UE-specific cyclic shift hopping pattern is defined by a UE-specific cyclic shift random generator initialization parameter C initi,UE, and wherein said UE-specific sequence shift pattern f SS,UE PUSCH can be determined based on the UE-specific base sequence parameter Δ SS,UE, and said UE-specific cyclic shift random generator initialization parameter C initi,UE can be determined based on the UE-specific cyclic shift hopping parameter Δ CS,UE.
A method for performing a cell load balancing by a base station in a wireless communication system configured to transmit a plurality of transport blocks, TBs, using a plurality of physical resource blocks, PRBs, the method comprising: identifying a usage of the PRBs used for the transmission of the TBs; and transmitting the identified usage of the PRBs for the cell load balancing to another base station; wherein the identifying of the usage of the PRBs comprises: identifying the TBs to be transmitted (TBO, TB1, TB2), identifying the PRBs (PRBO, PRB1, PRB2, PRB3) used to transmit each TB, identifying the number of times each PRB is used in the transmission of the TBs, inverting the number of times each PRB is used in the transmission of the TBs, summing, for each TB, the inverted numbers corresponding to the PRBs used in the transmission of the respective TB, and calculating the usage of the PRBs based on adding together the sum for each TB. identifying a usage of the PRBs used for the transmission of the TBs; and transmitting the identified usage of the PRBs for the cell load balancing to another base station; wherein the identifying of the usage of the PRBs comprises: identifying the TBs to be transmitted (TBO, TB1, TB2), identifying the PRBs (PRBO, PRB1, PRB2, PRB3) used to transmit each TB, identifying the number of times each PRB is used in the transmission of the TBs, inverting the number of times each PRB is used in the transmission of the TBs, summing, for each TB, the inverted numbers corresponding to the PRBs used in the transmission of the respective TB, and calculating the usage of the PRBs based on adding together the sum for each TB. identifying the TBs to be transmitted (TBO, TB1, TB2), identifying the PRBs (PRBO, PRB1, PRB2, PRB3) used to transmit each TB, identifying the number of times each PRB is used in the transmission of the TBs, inverting the number of times each PRB is used in the transmission of the TBs, summing, for each TB, the inverted numbers corresponding to the PRBs used in the transmission of the respective TB, and calculating the usage of the PRBs based on adding together the sum for each TB.
Force measuring bolt comprising in the axial direction at least one bolt-type middle portion and comprising at its ends two bearing sections (2, 3) that are substantially round at the outside, and having wall-like deformation bodies (4, 5, 6, 7) extending at least axially outwards and alignable in force measuring direction F, to which at least four shear force transducers are applied to detect the load between the middle portion and the two outer bearing sections (2, 3), characterised in that the two outer bearing sections are designed as bearing ring elements (2, 3) which coaxially surround the deformation bodies (4, 5, 6, 7) and are connected in the radial direction to the deformation bodies (4, 5, 6, 7) and in the axial direction to the middle portion, wherein the bearing ring elements (2, 3) are force-decoupled from the middle portion by at least two outer circumferential grooves (9, 10).
Encapsulated circuit device with a substrate and a plurality of components arranged on a substrate surface portion of a component side of the substrate; an encapsulation; at least one electrical contact (12a, b) with an outer portion, which projects from the encapsulation, and an inner portion, which is provided in the circuit device and is electrically connected to the substrate, wherein the encapsulation comprises a rigid outer encapsulation, which completely reaches around the substrate, the components and the inner portion of the at least one electrical contact (12a, b), and also a compressible absorption layer, which is provided between the components and the outer encapsulation and almost completely or completely covers at least the substrate surface portion on which the components are arranged, and the absorption layer is designed to absorb at least 90% of the deformation that arises as a result of thermally induced movement of the substrate surface and of the components relative to the outer encapsulation and corresponds to the change in volume, and wherein the compressible absorption layer has a modulus of elasticity which is less than 1/10 of the modulus of elasticity of the rigid outer encapsulation.
An image processing system comprising: a temporary storage unit that is adapted to temporarily store, as processing target captured images, a plurality of captured images whose image-capturing positions, which are the positions at which the images are captured to obtain the captured images, are included in a predetermined region, among captured images that are sequentially captured images of scenes viewed from a vehicle during travel of the vehicle; a similarity degree calculation unit that is adapted to calculate similarity degrees of the processing target captured images; a useful image selection unit that is adapted to select the processing target captured images whose similarity degrees are different from each other, as useful images; a first feature point extraction unit that is adapted to extract image feature points from each of the useful images; a first image feature point data generation unit that is adapted to generate image feature point data that includes the image feature points extracted by the first feature point extraction unit; and a reference data database creation unit that is adapted to generate reference data, used when scenic image recognition is performed, by associating the image feature point data generated by the first image feature point data generation unit with the image-capturing position at which the image is captured to obtain the captured image corresponding to the image feature point data, and create a reference data database that is a database of the reference data. a temporary storage unit that is adapted to temporarily store, as processing target captured images, a plurality of captured images whose image-capturing positions, which are the positions at which the images are captured to obtain the captured images, are included in a predetermined region, among captured images that are sequentially captured images of scenes viewed from a vehicle during travel of the vehicle; a similarity degree calculation unit that is adapted to calculate similarity degrees of the processing target captured images; a useful image selection unit that is adapted to select the processing target captured images whose similarity degrees are different from each other, as useful images; a first feature point extraction unit that is adapted to extract image feature points from each of the useful images; a first image feature point data generation unit that is adapted to generate image feature point data that includes the image feature points extracted by the first feature point extraction unit; and a reference data database creation unit that is adapted to generate reference data, used when scenic image recognition is performed, by associating the image feature point data generated by the first image feature point data generation unit with the image-capturing position at which the image is captured to obtain the captured image corresponding to the image feature point data, and create a reference data database that is a database of the reference data.
A urine incontinence pad having first and second longitudinal side edges (2,3) and front and rear end edges (4,5), and comprising a fluid permeable topsheet, a backsheet and an absorbent core being located between said topsheet and said backsheet, said core in its longitudinal direction having a front portion, a rear portion and an intermediate portion located between said front portion and said rear portion, said front portion and said rear portion each having a length of about 30% of the total length of said absorbent core and said intermediate portion having a length of about 40% of the total length of said absorbent core, said absorbent core having a varying thickness profile as seen in said longitudinal direction, with said intermediate portion having a first thickness (T1 0.5) under a load of 0.5 kPa and a first compressed thickness (T1 2.5) under a load of 2.5 kPa, said rear and front portions (15,13) having a second thickness (T2 0.5) under a load of 0.5 kPa and a second compressed thickness (T2 2.5) under a load of 2.5 kPa, each thickness being measured in accordance with the description, characterized in that said second thickness (T2 0.5) is from 37% to 15% of said first thickness (T1 0.5), that said second compressed thickness (T2 2.5) is from 37% to 15% of said first compressed thickness (Tl 2.5) and that a ratio (T1 2.5 / T2 2.5) between said first and said second compressed thickness is equal or greater than a ratio (T1 0.5 / T2 0.5) between said first and said second thickness, and wherein said absorbent core comprises a first core layer and a fluid control layer, said first core layer extending over said front portion, said intermediate portion and said rear portion, wherein said first core layer comprises 100 g/m 2 superabsorbent material or more and wherein the fluid control layer is shorter than the first core layer, and wherein a region of the absorbent core corresponding to a portion of the absorbent core comprising the fluid control layer has the first thickness (T1 0.5, T1 2.5) and a region of the absorbent core outside the portion comprising the fluid control layer has the second thickness (T2 0.5, T2 2.5).
A compound of formula wherein, Ar 1, Ar 2, and Ar 3 are each independently selected from the group consisting of aryl and heteroaryl, wherein Ar 1, Ar2, and Ar 3 are each optionally substituted; Ar 4 is aryl, furan or thiophene, optionally substituted by one or more substituents selected from the group consisting of alkyl, alkoxy, aryl, cycloalkyl, heteroaryl, and heterocycle.
Electrical machine, the stator whereof comprises a chassis, and a plurality of stator modules arranged on said chassis at equal angles, each module comprising a winding capable of generating a magnetic field, each stator module comprising: • a central portion on which said winding is orthoradially wound; • two side portions (21, 22), each forming a pole (33, 34) oriented towards the rotor, said chassis comprising a plurality of radial walls cooperating with the outer faces (31, 32) of the side portions (21, 22) of said stator modules to hold them in position, said electrical machine being characterised in that the radial walls comprise a central recess extending over all or part of the lengths thereof and in that the radial walls procure a good mechanical stability thanks to the possibility thereof of becoming deformed in the orthoradial direction, the presence of said central recess guaranteeing a mechanical flexibility and procuring a space allowing a fluid to flow within the radial walls. • a central portion on which said winding is orthoradially wound; • two side portions (21, 22), each forming a pole (33, 34) oriented towards the rotor, said chassis comprising a plurality of radial walls cooperating with the outer faces (31, 32) of the side portions (21, 22) of said stator modules to hold them in position, said electrical machine being characterised in that the radial walls comprise a central recess extending over all or part of the lengths thereof and in that the radial walls procure a good mechanical stability thanks to the possibility thereof of becoming deformed in the orthoradial direction, the presence of said central recess guaranteeing a mechanical flexibility and procuring a space allowing a fluid to flow within the radial walls.