mhurhangee/patent-ind-claim-en huggingface dataset:
A switching appliance, comprising a first housing and a second housing installed on one side of the first housing and used to accommodate an auxiliary contact mechanism, wherein the first housing comprises a lower housing , and an upper housing disposed on the top side of the lower housing and used to accommodate a main contact mechanism; the auxiliary contact mechanism comprises a linkage member connected to the main contact mechanism; the side wall of the second housing is provided with a first through hole used to make way for the linkage member ; the side wall of the upper housing close to the second housing is provided with a second through hole corresponding to the main contact mechanism inside the upper housing; characterised in that a mounting leg that extends to the side surface of the side wall of the lower housing is arranged at the bottom of the second housing ; a first clamping groove is formed in the side surface, facing the lower housing , of the mounting leg , and a second clamping groove which is opposite to the first clamping groove are formed in the side wall of the lower housing ; the mounting leg is connected to the side wall of the lower housing through a connector ; the first clamping groove and the second clamping groove are in position-limiting cooperation with two sides of the connector , respectively; and the connector is simultaneously inserted into the first clamping groove and the second clamping groove in a direction perpendicular to the linkage member to fix the second housing and the first housing .
Loading arm assembly for a load-handling vehicle configured for unloading and loading transportation containers having a hook , the loading arm assembly including: a main arm , an auxiliary arm connected with respect to the main arm , a pivot arm part connected with respect to the auxiliary arm so as to be pivotable by way of an articulation , wherein the pivot arm part in a transporting position engages in a clearance of the auxiliary arm , wherein the loading arm assembly further comprises a gripping hook connected with respect to a first end of the pivot arm part , the gripping hook configured for unloading and loading of transportation containers having a hook , characterized in that a crossbeam is connected with respect to a second end of the pivot arm part , the crossbeam including at least two corner grippers configured for unloading and loading of ISO containers. a main arm , an auxiliary arm connected with respect to the main arm , a pivot arm part connected with respect to the auxiliary arm so as to be pivotable by way of an articulation , wherein the pivot arm part in a transporting position engages in a clearance of the auxiliary arm , wherein the loading arm assembly further comprises a gripping hook connected with respect to a first end of the pivot arm part , the gripping hook configured for unloading and loading of transportation containers having a hook ,
A method comprising: allocating a portion of memory by: selecting a type of memory to allocate in a client device from a group of memory types in response to a memory allocation request , wherein the selection of the type of memory to allocate is based on an available memory determination, wherein the group of memory types includes a local primary memory , wherein the group of memory types further includes an external primary memory and/or a memory-mapped file , wherein the external primary memory is memory that is located in a memory appliance external to the client device but is treated as primary memory at the client device; selecting a portion of the local primary memory, a portion of the external primary memory, and/or a portion of the memory-mapped file for the portion of memory to allocate at the client device depending on the selected type of memory; and mapping at least the selected portion to an address space addressable by a processor of the client device. selecting a type of memory to allocate in a client device from a group of memory types in response to a memory allocation request , wherein the selection of the type of memory to allocate is based on an available memory determination, wherein the group of memory types includes a local primary memory , wherein the group of memory types further includes an external primary memory and/or a memory-mapped file , wherein the external primary memory is memory that is located in a memory appliance external to the client device but is treated as primary memory at the client device; selecting a portion of the local primary memory, a portion of the external primary memory, and/or a portion of the memory-mapped file for the portion of memory to allocate at the client device depending on the selected type of memory; and mapping at least the selected portion to an address space addressable by a processor of the client device.
Housing device to house an assembly of one or more organized groups of smoking articles associated with at least one filling insert , said housing device comprising a forming drawer provided with at least one passage aperture through which to insert at least said smoking articles , characterized in that said housing device comprises one or more anti-collision members disposed in correspondence with said at least one passage aperture and configured to prevent collisions between said smoking articles and said filling insert during the introduction of said smoking articles into said forming drawer , said one or more anti-collision members comprise at least a masking member configured to mask and/or cover the bulk of the front profile of said filling insert .
An amphibious vehicle comprising a vehicle frame and a cab supported by said vehicle frame , said cab being connected to said vehicle frame via hinge means so as to allow tilting of said cab about said hinge means between a closed position and an open position, characterized in that said vehicle comprises a sealing arrangement (60; 160; 260; 360) comprising sealing means (62, 64; 62, 64, 168; 62, 64, 268, 269; 64, 368) arranged to provide liquid tight sealing between the cab and the vehicle frame in said closed position, wherein in the closed position, the sealing arrangement is arranged to provide a confined space (S1, S2) for protecting components of said vehicle enclosed inside said space.
A secondary battery , comprising a housing as well as an electrode assembly and an electrolyte contained in the housing , the electrode assembly comprising a positive electrode plate, a negative electrode plate and a separator, and the positive electrode plate comprising a positive current collector and a positive electrode film that is disposed on at least one surface of the positive electrode current collector and comprises a positive electrode active material, and the negative electrode plate comprising a negative electrode current collector and a negative electrode film that is disposed on at least one surface of the negative electrode current collector, wherein the positive electrode active material comprises one or more of lithium nickel cobalt manganese oxide and lithium nickel cobalt aluminum oxide; the negative electrode active material comprises silicon-based material and carbon material; and the secondary battery satisfies: 0.05≤Z≤0.6, wherein Z = Vt − V 0 − H b − H a * S − V 1 / CAP ; Vt represents a volume of internal space of the housing , in cm 3 ; V0 represents a volume of the electrode assembly when the battery is at 0% SOC, in cm 3 ; H a represents a thickness of the negative electrode film when the battery is at 0% SOC, in cm; H b represents a thickness of the negative electrode film when the battery is at 100% SOC, in cm; S represents total area of the negative electrode film in the battery, in cm 2 ; V1 represents the volume of the electrolyte in the battery after formation, in cm 3 ; and CAP represents a rated capacity of the battery, in Ah, as measured by the method defined in the description; and a wall thickness T of the housing satisfies 0.2 mm≤T≤1 mm. wherein the positive electrode active material comprises one or more of lithium nickel cobalt manganese oxide and lithium nickel cobalt aluminum oxide; the negative electrode active material comprises silicon-based material and carbon material; and the secondary battery satisfies: 0.05≤Z≤0.6, wherein Z = Vt − V 0 − H b − H a * S − V 1 / CAP ; Vt represents a volume of internal space of the housing , in cm 3 ; V0 represents a volume of the electrode assembly when the battery is at 0% SOC, in cm 3 ; H a represents a thickness of the negative electrode film when the battery is at 0% SOC, in cm; H b represents a thickness of the negative electrode film when the battery is at 100% SOC, in cm; S represents total area of the negative electrode film in the battery, in cm 2 ; V1 represents the volume of the electrolyte in the battery after formation, in cm 3 ; and CAP represents a rated capacity of the battery, in Ah, as measured by the method defined in the description; and a wall thickness T of the housing satisfies 0.2 mm≤T≤1 mm.
An electric motor comprising a rotor mounted on a shaft , a stator disposed around the rotor , said stator comprising a body formed by a lamination stack and winding heads projecting axially on either side of the body of the stator, a front bearing and a rear bearing connected to each other, said front and rear bearings forming an inner cavity in which the rotor and the stator are housed, in which the rear bearing is bell-shaped and covers a cylindrical part of the front bearing extending axially from an end wall of said front bearing , the rear bearing forming with the front bearing an inner channel for the circulation of a first cooling fluid inside which a first cooling fluid circulates, said first cooling fluid penetrating inside the inner channel via a first fluid inlet channel formed radially through the rear bearing and exiting the inner channel via a first fluid outlet channel formed radially through the rear bearing , characterized in that the front bearing has a projecting rib extending radially towards an inner face of the rear bearing , said rib forming a separator for the inner channel , said first fluid inlet and outlet channels emerging respectively on either side of said rib , and in that the electric motor is also cooled by a second cooling fluid circulating in the lamination stack of the stator and on the winding heads of the stator , said second cooling fluid being supplied through at least one second fluid inlet channel , said at least one second fluid inlet channel being at least partially formed through the rib of the front bearing .
A therapeutic agent comprising a cell binding agent which binds the Receptor for Advanced Glycation Endproducts (RAGE) linked to an anti-cancer drug, for use in the treatment of ovarian or endometrial cancer wherein the cell binding agent is an antibody or a binding fragment thereof that following binding becomes internalised within a cell.
A method of fabricating a joining preform , the method comprising: printing a non-phosphorous joining alloy ; printing a self-fluxing joining alloy on the non-phosphorous joining alloy , the self-fluxing joining alloy containing at least one of phosphorus, boron, fluorine, chlorine, or potassium; repeating the printing a self-fluxing joining alloy step until the non-phosphorous joining alloy is substantially encapsulated by the self-fluxing joining alloy; wherein both printing steps are performed by an additive manufacturing process; and wherein the printing a self-fluxing joining alloy step further comprises: printing multiple layers of the self-fluxing joining alloy , each of the layers having a different percentage of phosphorus. printing a non-phosphorous joining alloy ; printing a self-fluxing joining alloy on the non-phosphorous joining alloy , the self-fluxing joining alloy containing at least one of phosphorus, boron, fluorine, chlorine, or potassium; repeating the printing a self-fluxing joining alloy step until the non-phosphorous joining alloy is substantially encapsulated by the self-fluxing joining alloy; wherein both printing steps are performed by an additive manufacturing process; and wherein the printing a self-fluxing joining alloy step further comprises: printing multiple layers of the self-fluxing joining alloy , each of the layers having a different percentage of phosphorus.
A screw part having - a shank which at least partially has at least one external thread turn in a threaded portion , and - a sleeve surrounding the shank in a circumferential direction around more than three-fourths of the circumference, wherein - the sleeve extends along a sleeve portion in a longitudinal direction of the shank , characterized in that - the sleeve has at least one radial elevation structure on an outer circumferential face , wherein - the at least one radial elevation structure has at least one structural element having an elastic design in the radial direction, wherein - the at least one radial elevation structure has an extent, on the outer circumferential face of the sleeve along the longitudinal direction, that is greater than a width (B) of the at least one structural element . - a shank which at least partially has at least one external thread turn in a threaded portion , and - a sleeve surrounding the shank in a circumferential direction around more than three-fourths of the circumference, wherein - the sleeve extends along a sleeve portion in a longitudinal direction of the shank , - the sleeve has at least one radial elevation structure on an outer circumferential face , wherein - the at least one radial elevation structure has at least one structural element having an elastic design in the radial direction, wherein - the at least one radial elevation structure has an extent, on the outer circumferential face of the sleeve along the longitudinal direction, that is greater than a width (B) of the at least one structural element .
Solid-state thermochromic device comprising a stack, wherein said stack comprises, preferably consists of, successively, from a rear face to a front face exposed to solar radiation: a) a solid substrate made of an inorganic material resistant up to a temperature of 550°C; preferably, the solid substrate is made of a material selected from among aluminum, silicon, and borosilicate glasses; b) an infrared-reflective layer made of an electronically-conductive material; c) electronically insulating interface layers ; d) an electronically insulating inorganic dielectric layer transparent to infrared radiation, made of cerium oxide CeO 2 , and has a thickness of 400 to 900 nm, preferably 700 to 900 nm; e) electronically insulating interface layers ; f) a layer of an infrared-active thermochromic material which is an n-doped VO 2 vanadium oxide, and crystallized in a monoclinic or rutile phase, having a thickness of 30 to 50 nm, preferably of 30 to 40 nm; g) a solar protective coating , solar reflective coating, transparent to infrared radiation. a) a solid substrate made of an inorganic material resistant up to a temperature of 550°C; preferably, the solid substrate is made of a material selected from among aluminum, silicon, and borosilicate glasses; b) an infrared-reflective layer made of an electronically-conductive material; c) electronically insulating interface layers ; d) an electronically insulating inorganic dielectric layer transparent to infrared radiation, made of cerium oxide CeO 2 , and has a thickness of 400 to 900 nm, preferably 700 to 900 nm; e) electronically insulating interface layers ; f) a layer of an infrared-active thermochromic material which is an n-doped VO 2 vanadium oxide, and crystallized in a monoclinic or rutile phase, having a thickness of 30 to 50 nm, preferably of 30 to 40 nm; g) a solar protective coating , solar reflective coating, transparent to infrared radiation.
Trim element for a tailgate of a motor vehicle, wherein in the trim element a receptacle is formed which is open to a vehicle interior side (FI), in which receptacle a warning triangle accommodated in a cover can be stored or is stored, wherein the receptacle has: a rear wall section with at least one elastic clamping element ; two front delimiting sections ; a supporting section ; wherein the clamping element , the front delimiting sections and the supporting section are designed such that when the warning triangle is stored they are in form-fitting and/or force-fitting connection with the cover , and wherein the rear wall section has above the clamping element a guiding section curved concavely to the vehicle interior side (FI), along which guiding section the cover of the warning triangle can be inserted into the receptacle or removed from it, characterised in that the receptacle has two lateral centring elements which have in each case one insertion section inclined with respect to a vertical direction (Z) and a receiving section , joined to the insertion section , extending substantially in vertical direction (Z). a rear wall section with at least one elastic clamping element ; two front delimiting sections ; a supporting section ; wherein the clamping element , the front delimiting sections and the supporting section are designed such that when the warning triangle is stored they are in form-fitting and/or force-fitting connection with the cover , and wherein the rear wall section has above the clamping element a guiding section curved concavely to the vehicle interior side (FI), along which guiding section the cover of the warning triangle can be inserted into the receptacle or removed from it, characterised in that the receptacle has two lateral centring elements which have in each case one insertion section inclined with respect to a vertical direction (Z) and a receiving section , joined to the insertion section , extending substantially in vertical direction (Z).
A computer-implemented method for efficient packet forwarding, the method comprising: storing, in a storage device in a first node, a plurality of static dictionaries, each static dictionary comprising a mapping between a type and length, TL, string and a compressed replacement string, wherein each static dictionary is constructed based on most commonly used TL pairs for a client; in response to identifying a particular TL string in a packet, replacing that TL string with a compressed replacement string using one of the plurality of dictionaries; including a context identifier in the packet to identify which dictionary was used; and transmitting the packet to a second node storing the static dictionary identified by the context identifier in a local storage device. storing, in a storage device in a first node, a plurality of static dictionaries, each static dictionary comprising a mapping between a type and length, TL, string and a compressed replacement string, wherein each static dictionary is constructed based on most commonly used TL pairs for a client; in response to identifying a particular TL string in a packet, replacing that TL string with a compressed replacement string using one of the plurality of dictionaries; including a context identifier in the packet to identify which dictionary was used; and transmitting the packet to a second node storing the static dictionary identified by the context identifier in a local storage device.
An apparatus for cutting human or animal tissue, such as a cornea, or a lens, said apparatus including a femtosecond laser capable of emitting a laser beam in the form of pulses and a device for processing the laser beam generated by the femtosecond laser , the processing device being positioned downstream of said femtosecond laser, the processing device comprising: - a shaping system positioned on the trajectory of said beam, to modulate the phase of the wavefront of the laser beam so as to obtain a single phase-modulated laser beam according to a modulation set value calculated to distribute the energy of the laser beam in at least two impact points forming a pattern in its focal plane , - a optical focusing system downstream of the shaping system, the optical focusing system comprising a concentrator module for focusing the phase-modulated laser beam in a focusing plane and a depth positioning module for moving the focusing plane into a plurality of cutting planes, - a sweeping optical scanner positioned between the concentrator module and the depth positioning module for moving the pattern in the cutting plane to a plurality of positions, characterized in that the shaping system includes a spatial light modulator, the laser beam being a single beam upstream and downstream of the spatial light modulator, the control unit being programmed to control the spatial light modulator by transmitting at least one control signal, each control signal causing a phase mask to be displayed on the spatial light modulator forming the modulation set value, and in that the device comprises a filter positioned downstream of the shaping system for blocking parasitic energy generated at the center of the shaping system. - a shaping system positioned on the trajectory of said beam, to modulate the phase of the wavefront of the laser beam so as to obtain a single phase-modulated laser beam according to a modulation set value calculated to distribute the energy of the laser beam in at least two impact points forming a pattern in its focal plane , - a optical focusing system downstream of the shaping system, the optical focusing system comprising a concentrator module for focusing the phase-modulated laser beam in a focusing plane and a depth positioning module for moving the focusing plane into a plurality of cutting planes, - a sweeping optical scanner positioned between the concentrator module and the depth positioning module for moving the pattern in the cutting plane to a plurality of positions,
A method for controlling a vehicle pulling a trailer , the method implemented in a steering controller and comprising: receiving, from a navigation processor , a path , a vehicle heading for the vehicle relative to the path , and a trailer position and heading for the trailer relative to the path , wherein the vehicle and the trailer are not spaced from the path ; calculating a trailer cross-track error based on a distance of the trailer from the path ; characterized in that it further comprises the following steps: calculating a vehicle heading error based on a heading of the vehicle relative to a path ; calculating a trailer heading error for a trailer attached to the vehicle based on a heading of the trailer relative to the path ; calculating a vehicle curvature error based on the vehicle heading error, trailer heading error, and trailer cross-track error; calculating steering commands based on the vehicle curvature error to reduce the trailer cross-track error; and sending the steering commands to a vehicle steering system configured for steering the vehicle , thereby causing the trailer to be moved toward the path . receiving, from a navigation processor , a path , a vehicle heading for the vehicle relative to the path , and a trailer position and heading for the trailer relative to the path , wherein the vehicle and the trailer are not spaced from the path ; calculating a trailer cross-track error based on a distance of the trailer from the path ; characterized in that it further comprises the following steps: calculating a vehicle heading error based on a heading of the vehicle relative to a path ; calculating a trailer heading error for a trailer attached to the vehicle based on a heading of the trailer relative to the path ; calculating a vehicle curvature error based on the vehicle heading error, trailer heading error, and trailer cross-track error; calculating steering commands based on the vehicle curvature error to reduce the trailer cross-track error; and sending the steering commands to a vehicle steering system configured for steering the vehicle , thereby causing the trailer to be moved toward the path .