mhurhangee/ep-ind-claims huggingface dataset:
Shaking device (100, 100', 200) for avoiding bark removal for mechanized collection of hanging fruits comprising: - a head (101, 101', 201); - at least one arm (102, 102', 202) connected to the head (101, 101', 201); - a main shaft (103, 103', 203), rotating with respect to a rotation axis (103a, 103'a, 203a); - at least one mass (104, 104', 204) positioned on the head (101, 101', 201) and eccentric with respect to the main shaft (103, 103', 203); - a register (105, 105', 205) of the eccentric mass (104, 104', 204) connected to said mass (104, 104', 204) and to the main shaft (103, 103', 203) together to the eccentric mass (104, 104', 204); - a regulation apparatus (106, 106', 206) for regulating the distance between the center of the mass (104, 104', 204) and the rotation axis (103a, 103'a, 203a) of the main shaft (103, 103', 203) connected to said register (105, 150', 205); characterized in that the regulation apparatus (106, 106', 206) comprises a vibration compensation apparatus (107, 107', 207) connected to the eccentric mass (104, 104', 204) and connecting the register (105, 105', 205) to said eccentric mass (104, 104', 204). - a head (101, 101', 201); - at least one arm (102, 102', 202) connected to the head (101, 101', 201); - a main shaft (103, 103', 203), rotating with respect to a rotation axis (103a, 103'a, 203a); - at least one mass (104, 104', 204) positioned on the head (101, 101', 201) and eccentric with respect to the main shaft (103, 103', 203); - a register (105, 105', 205) of the eccentric mass (104, 104', 204) connected to said mass (104, 104', 204) and to the main shaft (103, 103', 203) together to the eccentric mass (104, 104', 204); - a regulation apparatus (106, 106', 206) for regulating the distance between the center of the mass (104, 104', 204) and the rotation axis (103a, 103'a, 203a) of the main shaft (103, 103', 203) connected to said register (105, 150', 205);
Compounds of general formula below: in which: R1 represents a cyclopropylmethyl and R2 represents a methyl group, or; R1 represents a 4-hydroxybutyl group and R2 represents a hydrogen atom; and also the salts and enantiomers of the corresponding compounds of general formula. R1 represents a cyclopropylmethyl and R2 represents a methyl group, or; R1 represents a 4-hydroxybutyl group and R2 represents a hydrogen atom; and also the salts and enantiomers of the corresponding compounds of general formula.
A multi-point light-delivering device, comprising a waveguide carrying light along a longitudinal axis and including multiple optical windows, through which the carried light is out-coupled from the waveguide; said waveguide further comprising a tapered region along which said optical windows are distributed, characterised in that each optical window out-couples a specific subset of propagating modes of the carried light, to which said optical window is matched.
A battery package (110, 510) comprising: a rechargeable battery (112,512) and a wireless power transceiver (114,514), the wireless power transceiver (114,514) configured to wirelessly transfer power to an electronics package (132,532) of a body-implantable electronic device (130,530), wherein both the battery and the wireless power transceiver are enclosed within a hermetic material (120,520); and one or more alignment structures (118,138,518,538), configured to removably align the battery package with the body-implantable electronic device, wherein the battery (112,512) is configured to be recharged by power received from the wireless power transceiver (114,514), and wherein the wireless power transceiver (114,514) is further configured to receive power from a wireless transceiver (134,534) on the body-implantable electronic device (130,530), as received from an RF antenna on the body-implantable electronic device (130,530). a rechargeable battery (112,512) and a wireless power transceiver (114,514), the wireless power transceiver (114,514) configured to wirelessly transfer power to an electronics package (132,532) of a body-implantable electronic device (130,530), wherein both the battery and the wireless power transceiver are enclosed within a hermetic material (120,520); and one or more alignment structures (118,138,518,538), configured to removably align the battery package with the body-implantable electronic device, wherein the battery (112,512) is configured to be recharged by power received from the wireless power transceiver (114,514), and wherein the wireless power transceiver (114,514) is further configured to receive power from a wireless transceiver (134,534) on the body-implantable electronic device (130,530), as received from an RF antenna on the body-implantable electronic device (130,530).
A method for determining a detection range for a control channel in a multi-beam system, comprising: receiving, by a terminal device, configuration information sent by a network device; determining, by the terminal device, a time domain resource in which the control channel detection is required within a target downlink time period according to the configuration information, wherein the time domain resource comprises multiple time domain scheduling units, and wherein the configuration information is used for indicating a second time domain resource within the target downlink time period, the second time domain resource comprising a synchronization signal and a broadcast channel; wherein, determining, by the terminal device, the time domain resource in which the control channel detection is required within the target downlink time period according to the configuration information, comprises: determining a time domain resource, except the second time domain resource within the target downlink time period, as the time domain resource in which the control channel detection is required. receiving, by a terminal device, configuration information sent by a network device; determining, by the terminal device, a time domain resource in which the control channel detection is required within a target downlink time period according to the configuration information, wherein the time domain resource comprises multiple time domain scheduling units, and wherein the configuration information is used for indicating a second time domain resource within the target downlink time period, the second time domain resource comprising a synchronization signal and a broadcast channel; wherein, determining, by the terminal device, the time domain resource in which the control channel detection is required within the target downlink time period according to the configuration information, comprises: determining a time domain resource, except the second time domain resource within the target downlink time period, as the time domain resource in which the control channel detection is required.
An image processing device that processes an image in which a wiring pattern is drawn on a wiring board and outputs the image as raster data in which formation content of wiring print dots is defined for each pixel, the image processing device comprising: an input section configured to receive the image in which the wiring pattern including a wire having a prescribed width that is an integer multiple of a pixel width of the pixel and a prescribed angle that is an integer multiple of a predetermined angle is drawn; a scan section configured to sequentially perform scanning in a scan direction at intervals of the pixel width in a direction orthogonal to the scan direction to detect respective intersection points between an outline of the wire and respective scan lines; a calculation section configured to calculate an intersection-to-intersection distance in the scan direction based on positions of the intersection points; and a determination section configured to determine (S135, S150, S155) a line width of the wire in the scan direction and determine (S140, S160) formation of dots for the determined line width for each pixel based on the intersection-to-intersection distance, the prescribed width, and a line width of an inclination wire which is the line width, in the scan direction, of a wire inclined according to the prescribed angle. an input section configured to receive the image in which the wiring pattern including a wire having a prescribed width that is an integer multiple of a pixel width of the pixel and a prescribed angle that is an integer multiple of a predetermined angle is drawn; a scan section configured to sequentially perform scanning in a scan direction at intervals of the pixel width in a direction orthogonal to the scan direction to detect respective intersection points between an outline of the wire and respective scan lines; a calculation section configured to calculate an intersection-to-intersection distance in the scan direction based on positions of the intersection points; and a determination section configured to determine (S135, S150, S155) a line width of the wire in the scan direction and determine (S140, S160) formation of dots for the determined line width for each pixel based on the intersection-to-intersection distance, the prescribed width, and a line width of an inclination wire which is the line width, in the scan direction, of a wire inclined according to the prescribed angle.
A method for fabricating a DFB laser, comprising: - providing a planar substrate, an active layer substantially parallel to the planar substrate but not coplanar with said planar substrate, and a grating layer arranged in a planar layer substantially parallel to said active layer but not coplanar with said active layer and arranged on a side of the active layer opposite to the planar substrate; - covering with a mask a first section of an ensemble made of said planar substrate, said active layer and said grating layer, wherein said first section is intended to produce a laser section; - removing at least the grating layer in a second section of said ensemble made of said planar substrate, said active layer and said grating layer, wherein said second section is intended to produce a mirror section; - providing, in a single step, a grating mask covering at least partially the first section and at least partially the second section; such grating mask being configured to define a first Bragg grating in the first section and a second Bragg grating in the second section; - producing, using said grating mask, the first Bragg grating in the grating layer of the first section and the second Bragg grating in a planar layer of the second section that is coplanar with the active layer. - providing a planar substrate, an active layer substantially parallel to the planar substrate but not coplanar with said planar substrate, and a grating layer arranged in a planar layer substantially parallel to said active layer but not coplanar with said active layer and arranged on a side of the active layer opposite to the planar substrate; - covering with a mask a first section of an ensemble made of said planar substrate, said active layer and said grating layer, wherein said first section is intended to produce a laser section; - removing at least the grating layer in a second section of said ensemble made of said planar substrate, said active layer and said grating layer, wherein said second section is intended to produce a mirror section; - providing, in a single step, a grating mask covering at least partially the first section and at least partially the second section; such grating mask being configured to define a first Bragg grating in the first section and a second Bragg grating in the second section; - producing, using said grating mask, the first Bragg grating in the grating layer of the first section and the second Bragg grating in a planar layer of the second section that is coplanar with the active layer.
Electric machine for a motor vehicle drive train, the electric machine comprising: a stator, a rotor (100, 720), and a friction clutch device which is integrated into the rotor (100, 720), characterized in that the friction clutch device comprises an actuating device having a spring device and an adjusting device (300, 400, 500, 600) for travel-based wear compensation, and the spring device comprises a first disk spring and a second disk spring which are coupled to one another by a coupling element. a stator, a rotor (100, 720), and a friction clutch device which is integrated into the rotor (100, 720), characterized in that the friction clutch device comprises an actuating device having a spring device and an adjusting device (300, 400, 500, 600) for travel-based wear compensation, and the spring device comprises a first disk spring and a second disk spring which are coupled to one another by a coupling element.
A method for forming a deep draw closure cap for positioning over the upper end of a bottle, the method comprising: - draw forming a first cup (C 1) from a planar sheet of metal material defining a base thickness, the first cup (C 1) including a first cup base (B 1), a first cup wall (W 1), and an open end; - performing a first redrawing of the first cup (C 1) to form a redrawn cup (C 2) having a redrawn cup base (B 2) and a redrawn cup wall (W 2), and an open end; - further passing the material through an ironing die, wherein the ironing die reduces the thickness of the redrawn cup wall (W 2) at least adjacent the open end, - characterized in that after passing the material through the ironing die a thickness of the cup wall adjacent the open end of the cup is less than a thickness of the cup wall adjacent the cup base, and - that the first cup (C 1) further includes a first cup flange (F 1) extending laterally from the first cup wall (W 1). - draw forming a first cup (C 1) from a planar sheet of metal material defining a base thickness, the first cup (C 1) including a first cup base (B 1), a first cup wall (W 1), and an open end; - performing a first redrawing of the first cup (C 1) to form a redrawn cup (C 2) having a redrawn cup base (B 2) and a redrawn cup wall (W 2), and an open end; - further passing the material through an ironing die, wherein the ironing die reduces the thickness of the redrawn cup wall (W 2) at least adjacent the open end, - characterized in that after passing the material through the ironing die a thickness of the cup wall adjacent the open end of the cup is less than a thickness of the cup wall adjacent the cup base, and - that the first cup (C 1) further includes a first cup flange (F 1) extending laterally from the first cup wall (W 1).
A floating structure, comprising a first plurality of tubes and a second plurality of tubes maintaining tubes of the first plurality of tubes longitudinally equidistant from and parallel to each other, the first plurality of tubes and the second plurality of tubes being related to each other and making up a grid-like structure, each tube of the first plurality of tubes showing an alignment of pairs of holes (4, 4') in their periphery, being foreseen holes (4, 4') centred and facing each other at either end of a line running transversally to the longitudinal axis of each tube, all pairs of holes (4, 4') on each tube being equidistant from each other and pairs of holes (4, 4') facing each other on the tubes of the first plurality of tubes respectively crossed by the corresponding tubes of the second plurality of tubes, portions of a same tube of said second plurality of tubes being respectively comprised between pairs of holes (4, 4') of the tube of the first plurality of tubes it crosses and being linked at their ends to the respective periphery of crossed pair of holes (4, 4') characterized in that said line running transversally to a longitudinal axis of each tube is parallel to a horizontal plane that divides the tube into two semi-cylindrical portions, and is on the upper semi-cylindrical portion of tubes such that the second plurality of tubes extend through the upper semi-cylindrical portion of the tubes of the first plurality of tubes.
Machine for preparing beverages and comprising: - a plurality of beverage concentrate cartridges, each thereof comprising a container part adapted for collecting a beverage concentrate and a discharge part adapted for discharge of said beverage concentrate, arranged in a cartridge support, - only one concentrate discharge device adapted for interacting with said discharge part of each of said beverage concentrate cartridges, - at least one diluent reservoir adapted for collecting a beverage diluent and in fluid connection with a diluent discharge provided downstream, - a control device provided in operational connection with said concentrate discharge device, whereby said beverage concentrate cartridges comprise a container part of generally cylindrical or prismatic form, and said discharge part having a smaller cross-section than said container part, and whereby said beverage concentrate cartridges are disposed on a cartridge support with said discharge part oriented downwards, whereby said concentrate discharge device is adapted so that said beverage concentrate can be discharged, from the discharge part of each of said beverage concentrate cartridges, directly to the exterior of said machine, in particular to a beverage recipient that can be placed aligned with the discharge zone of a service disposition, without thereby touching in any other part of said machine characterized in that said diluent reservoir is provided at a central region of a circular-like arrangement of said beverage concentrate cartridges, and in that the machine comprises an access window provided on the top face and providing simultaneous access to said beverage concentrate cartridges and also to said diluent reservoir, whereby said access window is configured to provide passage to said diluent reservoir. - a plurality of beverage concentrate cartridges, each thereof comprising a container part adapted for collecting a beverage concentrate and a discharge part adapted for discharge of said beverage concentrate, arranged in a cartridge support, - only one concentrate discharge device adapted for interacting with said discharge part of each of said beverage concentrate cartridges, - at least one diluent reservoir adapted for collecting a beverage diluent and in fluid connection with a diluent discharge provided downstream, - a control device provided in operational connection with said concentrate discharge device,
A programmable device for utilization as a structural design tool, wherein the device is operable to calculate structural stress σ s in a localized fatigue-prone region of said structure by: determining a through-thickness stress distribution σ x (y) along a selected cross section of said structure, wherein a localized fatigue-prone region lies adjacent to said selected cross section, and wherein said stress distribution σ x (y) is determined from a representation of said structure; determining a through-thickness shear stress distribution τ xy (y) from said structural representation; determining a first component σ M of said structural stress σ s in said localized fatigue-prone region by performing the following first integration σ M = 1 t ∫ 0 t σ X y d y where σ x (y) represents said through-thickness stress distribution and t corresponds to the thickness of said structure in said selected cross section; determining a second component σ B of said structural stress σ s in said localized fatigue-prone region by solving the following equation for σ B t 2 2 σ M + t 2 2 σ B = ∫ 0 t σ x y y d y + δ ∫ 0 t τ xy y d y where y corresponds to a position along said selected cross section, t corresponds to the thickness of said structure in said selected cross section, δ represents the element size of a finite element model used in said representation of said structure; and calculating said structural stress σ s by adding said first component σ M of said structural stress and said second component σ B of said structural stress, to thereby predict failure, determine fatigue, and analyze the structure using the calculated stress. determining a through-thickness stress distribution σ x (y) along a selected cross section of said structure, wherein a localized fatigue-prone region lies adjacent to said selected cross section, and wherein said stress distribution σ x (y) is determined from a representation of said structure; determining a through-thickness shear stress distribution τ xy (y) from said structural representation; determining a first component σ M of said structural stress σ s in said localized fatigue-prone region by performing the following first integration σ M = 1 t ∫ 0 t σ X y d y where σ x (y) represents said through-thickness stress distribution and t corresponds to the thickness of said structure in said selected cross section; determining a second component σ B of said structural stress σ s in said localized fatigue-prone region by solving the following equation for σ B t 2 2 σ M + t 2 2 σ B = ∫ 0 t σ x y y d y + δ ∫ 0 t τ xy y d y where y corresponds to a position along said selected cross section, t corresponds to the thickness of said structure in said selected cross section, δ represents the element size of a finite element model used in said representation of said structure; and calculating said structural stress σ s by adding said first component σ M of said structural stress and said second component σ B of said structural stress, to thereby predict failure, determine fatigue, and analyze the structure using the calculated stress.
An elevator machine frame, comprising: a plurality of support surfaces (42, 44) configured to support at least one of a motor or a brake associated with a traction sheave; a plurality of arms (46, 48, 50) between the support surfaces (42, 44) and maintaining a desired alignment of the support surfaces (42, 44), at least one of the arms (46, 48, 50) having a first cross section taken transverse to a longitudinal direction along a length of the at least one arm at a first longitudinal location on the at least one arm and a second, different cross section at a second, different longitudinal location on the at least one arm, characterized in that the cross section of the at least one arm (46, 48, 50) progessively varies between the first and second locations. a plurality of support surfaces (42, 44) configured to support at least one of a motor or a brake associated with a traction sheave; a plurality of arms (46, 48, 50) between the support surfaces (42, 44) and maintaining a desired alignment of the support surfaces (42, 44), at least one of the arms (46, 48, 50) having a first cross section taken transverse to a longitudinal direction along a length of the at least one arm at a first longitudinal location on the at least one arm and a second, different cross section at a second, different longitudinal location on the at least one arm, a first cross section taken transverse to a longitudinal direction along a length of the at least one arm at a first longitudinal location on the at least one arm and a second, different cross section at a second, different longitudinal location on the at least one arm, characterized in that the cross section of the at least one arm (46, 48, 50) progessively varies between the first and second locations.
A molding compound supported redistribution layer structure for an integrated circuit package, the RDL structure comprising: a molding compound (37, 372); a plurality of copper pillars, each having a bottom end protruded below the molding compound (37, 372); a bottom RDL, configured on bottom of the molding compound (37, 372); having a plurality of first bottom pads and a plurality of first top pads; wherein the density of the first bottom pads is higher than the density of the first top pads; and wherein the bottom end of each copper pillar is electrically coupled to a corresponding first top pad. a molding compound (37, 372); a plurality of copper pillars, each having a bottom end protruded below the molding compound (37, 372); a bottom RDL, configured on bottom of the molding compound (37, 372); having a plurality of first bottom pads and a plurality of first top pads; wherein the density of the first bottom pads is higher than the density of the first top pads; and wherein the bottom end of each copper pillar is electrically coupled to a corresponding first top pad.