mhurhangee/patent-ind-claim-en huggingface dataset:
Soil compactor comprising a compaction roller rotatably supported by a compaction roller frame , wherein the compaction roller frame comprises two longitudinal support members arranged in a direction (L) longitudinal to the compactor on both sides of the compaction roller and supporting said compaction roller, and two cross members arranged along both sides of the compaction roller in relation to a direction (Q) perpendicular to the compactor and connecting the two longitudinal support members together, wherein the compaction roller frame is connected to a compactor main frame via one of the two cross members , and wherein at least one sight opening is provided within the other of the two cross members , wherein a leveling blade is supported by the compaction roller frame so as to be movable in a direction (H) vertical to the compactor, wherein the upper area of the leveling blade in a direction (H) vertical to the compactor has at least one leveling blade sight opening and a leveling blade lifting mechanism is supported in relation to the leveling blade and the other cross member , characterized in that in the upper area of the leveling blade a plurality of leveling blade bars is provided, extending essentially parallel to the compaction roller axis of rotation and parallel to one another, and wherein at least one leveling blade sight opening is formed between at least two leveling blade bars .
Clamping device with a lower jaw , at the front edge of which a support surface , which extends at least approximately in a horizontal plane, for a workpiece to be clamped is provided, and with at least one clamp which is arranged above the lower jaw and which in the region of its back end is pivotably mounted on the upper side of the lower jaw so that through actuation of a clamping means the clamp is led against the upper side of the lower jaw , whereby the front edge of the clamp is pressed against the upper side of the workpiece lying on the support surface , characterised in that a slit separating an upper segment from a lower segment extends in the lower jaw , wherein the lower side of the lower segment forms a rest surface for support on a substrate and at the upper segment the front edge is provided with the support surface , and wherein adjusting means for adjusting the front edge are provided in the upper segment .
A driving system comprising: - a motor that is connected to a wheel (W, LWr, RWr) of a vehicle so as to transmit power to the wheel (W, LWr, RWr); - a power transmission device (CL, 60A, 60B) that is provided on a power transmission path between the motor and the wheel (W, LWr, RWr) and that can change a power transmission capacity of the power transmission path by controlling an application force; - a motor controller that controls power that is generated by the motor ; - an application force controller that controls the application force of the power transmission device (CL, 60A, 60B); and - an application force acquiring device that acquires a current application force which is an application force that the power transmission device (CL, 60A, 60B) is currently exerting, and characterized in that when the motor controller receives a request for generation of power or for an increase in power respectively, in such a motor rotating state that the motor currently generates no power or is generating power respectively, the motor controller is configured to control to permit or prohibit the generation of power or the increase in power of the motor respectively, irrespective of a magnitude of the request, when the current application force is smaller than a necessary application force (F), which is an application force of the power transmission device (CL, 60A, 60B) that is needed to transmit a maximum torque (T) of the motor in a current rotating state quantity (V), which is a rotating state quantity that the motor is currently having, the generation of power or the increase in power of the motor is prohibited, respectively, to avoid slip of the power transmission device (CL, 60A, 60B). - a motor that is connected to a wheel (W, LWr, RWr) of a vehicle so as to transmit power to the wheel (W, LWr, RWr); - a power transmission device (CL, 60A, 60B) that is provided on a power transmission path between the motor and the wheel (W, LWr, RWr) and that can change a power transmission capacity of the power transmission path by controlling an application force; - a motor controller that controls power that is generated by the motor ; - an application force controller that controls the application force of the power transmission device (CL, 60A, 60B); and - an application force acquiring device that acquires a current application force which is an application force that the power transmission device (CL, 60A, 60B) is currently exerting, and
A weighing module for a nest in a poultry management system comprising a floor for receiving poultry and/or a nesting pad and a mounting device with which the weighing module can be attached to an animal holding installation, namely to a nest installation, wherein the floor is supported by a weighing element, wherein the weighing element is arranged between the mounting device and the floor , characterized in that the mounting device comprises two or more mounting elements , wherein one mounting element, respectively, is arranged on two opposite sides of the floor.
Process for treating a stack intended for manufacture of a photovoltaic cell, said stack comprising at least: - a crystalline silicon substrate , - a first passivation layer made of hydrogenated amorphous silicon, placed on a first side of the substrate, - a first layer made of amorphous silicon doped according to a first conductivity type, placed on the first passivation layer , said process comprising steps of: - placing said stack in an enclosure , - exposing said stack to electromagnetic radiation (R), - measuring the temperature of the stack , - measuring the ambient temperature present in said enclosure , - cooling said stack during exposure, said process being characterized in that said stack is cooled by: - injecting a gas flow (F) into said enclosure , - regulating the injected gas flow (F) taking into account the measured temperature of the stack , - evacuating the gas flow (F) from the enclosure taking into account the ambient temperature measured in said enclosure . - a crystalline silicon substrate , - a first passivation layer made of hydrogenated amorphous silicon, placed on a first side of the substrate, - a first layer made of amorphous silicon doped according to a first conductivity type, placed on the first passivation layer , - placing said stack in an enclosure , - exposing said stack to electromagnetic radiation (R), - measuring the temperature of the stack , - measuring the ambient temperature present in said enclosure , - cooling said stack during exposure, - injecting a gas flow (F) into said enclosure , - regulating the injected gas flow (F) taking into account the measured temperature of the stack , - evacuating the gas flow (F) from the enclosure taking into account the ambient temperature measured in said enclosure .
An agglomerated filler material comprising a core and a shell, a. wherein the core is made of a mixed oxides core material having a primary particle size of from 300 nm to 2 μm and the shell is made of a mixed oxides shell material, such that the core material and the shell material are different materials, b. wherein the shell material attaches to the core material via electrostatic forces, c. wherein the core material is positively or negatively charged and the shell material is an opposite charge of the core material, d. wherein a surface area of the agglomerated filler material is from about 1 m 2 /g to about 200 m 2 /g. a. wherein the core is made of a mixed oxides core material having a primary particle size of from 300 nm to 2 μm and the shell is made of a mixed oxides shell material, such that the core material and the shell material are different materials, b. wherein the shell material attaches to the core material via electrostatic forces, c. wherein the core material is positively or negatively charged and the shell material is an opposite charge of the core material, d. wherein a surface area of the agglomerated filler material is from about 1 m 2 /g to about 200 m 2 /g.
Dental abutment , wherein the abutment comprises a first interface for connection to a dental crown, a prosthesis and/or a bridge, wherein the abutment comprises a second interface for connection to an implant and wherein the abutment comprises a center segment , wherein the center segment has a plurality of outwardly projecting ridges or one or more ridge-shaped sequences of elevations, in particular point-shaped elevations, for the attachment of mucosa and/or gingiva, wherein a groove is arranged in each case between each two adjacent ridges , wherein the ridges and the grooves have a spiral course with respect to the longitudinal axis of the abutment , wherein the ridges or the grooves each have a starting point and an end point , wherein the spiral course of the ridges or the grooves has a circumferential offset between the starting point and the end point of at least 5°, wherein an offset between the starting and end point by a full circumference is 360°, and wherein the second interface defines a coverage area in which the surface of the abutment is coverable by the implant.
A process for preparing potassium oxalate which process comprises contacting potassium formate with a base catalyst at a temperature of from 140 to 260 °C which base catalyst is a metal hydride.
Aerosol-generating device comprising: - a cartridge for holding an aerosol-forming substrate, - an atomizer for atomizing aerosol-forming substrate; - a micropump for delivering a fluid, wherein the micropump is arranged between the cartridge and the atomizer and in fluid connection with the cartridge and the atomizer for supplying aerosol-forming substrate from the cartridge to the atomizer, the micropump comprising: two pump chambers having two separate chamber volumes; two actuators , each actuator assigned to one of the two pump chambers for changing a respective chamber volume; each pump chamber provided with at least one inlet valve and at least one outlet valve for establishing a pumping direction along a fluid path, said fluid path comprising no angles of 90 degree or smaller; a common inlet and a common outlet , wherein the two pump chambers are arranged in parallel and are in fluid connection with the common inlet and the common outlet , and wherein the actuators are configured to operate in parallel such that a volume change in each of the two pump chambers occurs simultaneously for both pump chambers . - a cartridge for holding an aerosol-forming substrate, - an atomizer for atomizing aerosol-forming substrate; - a micropump for delivering a fluid, wherein the micropump is arranged between the cartridge and the atomizer and in fluid connection with the cartridge and the atomizer for supplying aerosol-forming substrate from the cartridge to the atomizer, the micropump comprising: two pump chambers having two separate chamber volumes; two actuators , each actuator assigned to one of the two pump chambers for changing a respective chamber volume; each pump chamber provided with at least one inlet valve and at least one outlet valve for establishing a pumping direction along a fluid path, said fluid path comprising no angles of 90 degree or smaller; a common inlet and a common outlet , wherein the two pump chambers are arranged in parallel and are in fluid connection with the common inlet and the common outlet , and wherein the actuators are configured to operate in parallel such that a volume change in each of the two pump chambers occurs simultaneously for both pump chambers . two pump chambers having two separate chamber volumes; two actuators , each actuator assigned to one of the two pump chambers for changing a respective chamber volume; each pump chamber provided with at least one inlet valve and at least one outlet valve for establishing a pumping direction along a fluid path, said fluid path comprising no angles of 90 degree or smaller; a common inlet and a common outlet , wherein the two pump chambers are arranged in parallel and are in fluid connection with the common inlet and the common outlet , and wherein the actuators are configured to operate in parallel such that a volume change in each of the two pump chambers occurs simultaneously for both pump chambers .
A variant IgG comprising a human IgG1 Fc region wherein the variant has the following substitutions relative to a wild-type human IgG1 Fc region, numbered according to the EU index as in Kabat, and has an increased half-life compared to the half-life of said IgG having the wild-type human IgG1 Fc region: threonine at amino acid 307 of the Fc region is substituted with glutamine and asparagine at amino acid 434 of the Fc region is substituted with alanine; or threonine at amino acid 307 of the Fc region is substituted with glutamine, glutamic acid at amino acid amino acid 380 of the Fc region is substituted with alanine, and asparagine at amino acid 434 of the Fc region is substituted with serine. threonine at amino acid 307 of the Fc region is substituted with glutamine and asparagine at amino acid 434 of the Fc region is substituted with alanine; or threonine at amino acid 307 of the Fc region is substituted with glutamine, glutamic acid at amino acid amino acid 380 of the Fc region is substituted with alanine, and asparagine at amino acid 434 of the Fc region is substituted with serine.
Scaffold stairway comprising two separate side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ) and a plurality of separate stairway step elements , which are coupled to the side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ), wherein holding devices are formed on both side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ) for holding the stairway step elements , wherein the holding devices are provided in the form of grooves (18; 18 (I) ; 18 (II) ; 18 (III) ; 18 (IV) ) comprising groove walls per groove (18; 18 (I) ; 18 (II) ) or groove-wall portions per groove (18 (III) ; 18 (IV) ) formed from groove portions (59a - 59d) on side faces of the side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ) which face one another and are designed as hollow profiles (43; 43 (I) ; 43 (II) ; 43 (III) ; 43 (IV) ), into which grooves the stairway step elements are inserted by their free ends , and the free ends of the stairway step elements rest on the groove wall or the groove-wall portions , wherein at least on the side faces facing one another, in particular on the side faces facing one another and the side faces facing away from one another, of the side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ) at least one protruding rib (44a-44s) is formed, in particular centrally, or regularly or irregularly spaced ribs (44a-44s) are formed in the longitudinal direction of the respective side rail (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ) which comprises/comprise the grooves (18; 18 (I) ; 18 (II) ; 18 (III) ; 18 (IV) ; 82) or groove portions (59a-59d), wherein the grooves (18; 18 (I) ; 18 (II) ; 18 (III) ; 18 (IV) ) in the at least one rib (44a - 44s) or the ribs (44a - 44s) are formed in the form of cut-outs, wherein the depths of the cut-outs or grooves in the side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ) are limited and are either defined by a rib height of the at least one rib (44a - 44s) or end at the level of channels (48a - 48c) between the ribs (44a - 44s) of the hollow profile, characterized in that the side rails (12, 14; 12 , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ) at the level of the grooves (18; 18 (I) ; 18 (II) ; 18 (III) ; 18 (IV) ) comprise first stops for the stairway step elements , such that the side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ) are slid onto the stairway step elements without the stairway step elements projecting beyond the side faces facing away from one another of the side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ), and without the stairway step elements projecting through the side faces facing away from one another of the side rails (12, 14; 12 (I) , 14 (I) ; 12 (II) , 14 (II) ; 12 (III) , 14 (III) ; 12 (IV) , 14 (IV) ).
An ohmic contact for a multiple channel FET, comprising: a plurality of slit-shaped recesses in a wafer on which a multiple channel FET resides, each recess having a depth at least equal to the depth of the lowermost channel layer of said FET, said recesses aligned linearly with each other, said line of recesses oriented perpendicular to the direction of current flow between said FET's source and drain; ohmic metals in and on the sidewalls of each of said slit-shaped recesses such that ohmic contact is made to each of said multiple channel layers; wherein each of said slit-shaped recesses has an inside edge which current flows to or from and an outside edge, characterised in that , the ohmic contact further comprises a linear connecting recess which is contiguous with the outside edge of each of said slit-shaped recesses , said ohmic metals also in said linear connecting recess such that said ohmic metals interconnect said slit-shaped recesses and said linear connecting recess with said multiple channel layers. a plurality of slit-shaped recesses in a wafer on which a multiple channel FET resides, each recess having a depth at least equal to the depth of the lowermost channel layer of said FET, said recesses aligned linearly with each other, said line of recesses oriented perpendicular to the direction of current flow between said FET's source and drain; ohmic metals in and on the sidewalls of each of said slit-shaped recesses such that ohmic contact is made to each of said multiple channel layers; wherein each of said slit-shaped recesses has an inside edge which current flows to or from and an outside edge, characterised in that , the ohmic contact further comprises a linear connecting recess which is contiguous with the outside edge of each of said slit-shaped recesses , said ohmic metals also in said linear connecting recess such that said ohmic metals interconnect said slit-shaped recesses and said linear connecting recess with said multiple channel layers.
A data processing method performed by a remote user equipment, remote UE, the method comprising: receiving Session Initiation Protocol, SIP, information including a temporary mobile group identity, TMGI, of a multimedia broadcast multicast service, MBMS, bearer and including a quality of Service, QoS, of the MBMS bearer from an application server (step 4a); sending a TMGI monitoring request to a relay UE, wherein the TMGI monitoring request includes the TMGI of the MBMS bearer and the QoS of the MBMS bearer (step 5a); receiving MBMS data for the remote UE on the MBMS bearer from the relay UE (step 7). receiving Session Initiation Protocol, SIP, information including a temporary mobile group identity, TMGI, of a multimedia broadcast multicast service, MBMS, bearer and including a quality of Service, QoS, of the MBMS bearer from an application server (step 4a); sending a TMGI monitoring request to a relay UE, wherein the TMGI monitoring request includes the TMGI of the MBMS bearer and the QoS of the MBMS bearer (step 5a); receiving MBMS data for the remote UE on the MBMS bearer from the relay UE (step 7).
A method of deploying countermeasures against scripts, which scripts interfere with the integrity of information resources by calculating a hash value of bit streams of content elements on the information resource to generate an element identifier for each content element, the method comprising: identifying , by a data processing system having one or more processors, a first content element on an information resource previously transmitted to a client device, the first content element having a first bit stream; determining , by the data processing system, an interference to a rendering of the first content element on the information resource; generating , by the data processing system responsive to determining the interference to the rendering of the first content element on the information resource, a second content element for a subsequent information resource based on the first content element, the second content element having a second bit stream different from the first bit stream wherein generating the second content element further comprises modifying a visual characteristic of the first content element to generate the second content element to cause a change from the first bit stream to the second bit stream; and transmitting , by the data processing system, to the client device, the subsequent information resource including the second content element. identifying , by a data processing system having one or more processors, a first content element on an information resource previously transmitted to a client device, the first content element having a first bit stream; determining , by the data processing system, an interference to a rendering of the first content element on the information resource; generating , by the data processing system responsive to determining the interference to the rendering of the first content element on the information resource, a second content element for a subsequent information resource based on the first content element, the second content element having a second bit stream different from the first bit stream wherein generating the second content element further comprises modifying a visual characteristic of the first content element to generate the second content element to cause a change from the first bit stream to the second bit stream; and transmitting , by the data processing system, to the client device, the subsequent information resource including the second content element.
A maintenance frame , suitable for lifting at least an end unit of a chromatography column via an adapter rod of the column , the frame comprising: at least two legs ; a support arrangement connected to said at least two legs ; a holder means connected to said support arrangement ; wherein said holder means is arranged to releasably hold the adaptor rod of the chromatography column , so that the adaptor rod is prevented to move in a horizontal direction and so the adaptor rod is allowed to move in a vertical direction for said lifting; and wherein: a stopper means is arranged on the support arrangement , characterized in that the stopper means is adapted to interact with an axial groove in the adaptor rod , so that the adaptor rod is prevented from pivoting in said holder means . at least two legs ; a support arrangement connected to said at least two legs ; a holder means connected to said support arrangement ; wherein said holder means is arranged to releasably hold the adaptor rod of the chromatography column , so that the adaptor rod is prevented to move in a horizontal direction and so the adaptor rod is allowed to move in a vertical direction for said lifting; and wherein: a stopper means is arranged on the support arrangement , characterized in that the stopper means is adapted to interact with an axial groove in the adaptor rod , so that the adaptor rod is prevented from pivoting in said holder means .