mhurhangee/ep-ind-claims huggingface dataset:
Lashing rail for fastening loaded goods on a transport vehicle by means of fitting elements, wherein the lashing rail is arranged with a base body, substantially rectangular in cross-section, in a longitudinally formed groove of an additional loading base of the transport vehicle, characterised in that longitudinally protruding adhesive rails (5, 6) are fixed to the underside of the base body facing the transport vehicle chassis, said adhesive rails engaging into recesses introduced on the underside of the additional loading base, wherein the adhesive rails (5, 6) have at least two adhesive grooves (8, 9, 10, 11) arranged adjacent to one another, which correspond over their entire width substantially at least to the width of the base body of the lashing rail and wherein stabilising elements arranged substantially at right angles to the longitudinal axis of the lashing rail are arranged in the end regions of the lashing rail, said stabilising elements being fixed to the lashing rail.
A battery module, comprising: a plurality of battery cells; at least one radio frequency identification tag; at least one radio frequency receiver; and a printed circuit board comprising the at least one radio frequency receiver, wherein each of the radio frequency identification tags is attached to at least one battery cell and configured to measure a temperature of the at least one battery cell it is attached to, wherein each of the radio frequency identification tags is a passive radio frequency identification tag configured to harvest energy supplied by at least one of the radio frequency receivers and to wirelessly send temperature signals within an operating range being limited by a short predefined distance D, the temperature signals corresponding to the temperature of the battery cell measured by the radio frequency identification tag being attached to the battery cell, wherein the short predefined distance D is 10 cm, preferably 5 cm, more preferably 3 cm, and most preferably within a range of 0.5 cm to 2 cm, wherein each of the radio frequency receivers is configured to wirelessly supply energy to at least one of the radio frequency identification tags and to receive a temperature signal sent by at least one of the radio frequency identification tags, and wherein the printed circuit board is positioned close to the battery cells, such that any one of the radio frequency identification tags is located within the short predefined distance D to at least one of the radio frequency receivers. a plurality of battery cells; at least one radio frequency identification tag; at least one radio frequency receiver; and a printed circuit board comprising the at least one radio frequency receiver, wherein each of the radio frequency identification tags is attached to at least one battery cell and configured to measure a temperature of the at least one battery cell it is attached to, wherein each of the radio frequency identification tags is a passive radio frequency identification tag configured to harvest energy supplied by at least one of the radio frequency receivers and to wirelessly send temperature signals within an operating range being limited by a short predefined distance D, the temperature signals corresponding to the temperature of the battery cell measured by the radio frequency identification tag being attached to the battery cell, wherein the short predefined distance D is 10 cm, preferably 5 cm, more preferably 3 cm, and most preferably within a range of 0.5 cm to 2 cm, wherein each of the radio frequency receivers is configured to wirelessly supply energy to at least one of the radio frequency identification tags and to receive a temperature signal sent by at least one of the radio frequency identification tags, and wherein the printed circuit board is positioned close to the battery cells, such that any one of the radio frequency identification tags is located within the short predefined distance D to at least one of the radio frequency receivers.
A deep brain stimulation system comprising: a lead configured to contact neural tissue; and an implantable pulse generator configured to deliver successive non-regular electrical pulse trains including non-regular inter-pulse intervals which are linearly cyclically ramped over time in non-regular temporal patterns to the lead and at least one burst or pause wherein a burst consists of at least two consecutive instantaneous pulses each having a frequency whose average is greater than twice the average frequency of pulses in a period of time of at least 125 milliseconds preceding the at least two pulses and a pause consists of a period of time of at least 11 milliseconds during which no pulse is initiated. a lead configured to contact neural tissue; and an implantable pulse generator configured to deliver successive non-regular electrical pulse trains including non-regular inter-pulse intervals which are linearly cyclically ramped over time in non-regular temporal patterns to the lead and at least one burst or pause wherein a burst consists of at least two consecutive instantaneous pulses each having a frequency whose average is greater than twice the average frequency of pulses in a period of time of at least 125 milliseconds preceding the at least two pulses and a pause consists of a period of time of at least 11 milliseconds during which no pulse is initiated.
A method for receiving a Scheduling Assignment, SA, through a Physical Downlink Control Channel, PDCCH, by a User Equipment, UE, in a wireless communication system supporting carrier aggregation, the method comprising the steps of: receiving a first SA, intended for a first Component Carrier, CC, transmitted from a Node B by using at least one of Control Channel Elements, CCEs, from a first set of CCEs in the PDCCH; and receiving a second SA, intended for a second CC, transmitted from the Node B by using at least one of CCEs from a second set of CCEs in the PDCCH, wherein a location of the second set of CCEs is determined from a location of the first set of CCEs, wherein a location of a second CCE included in the second set of CCEs is shifted by a predetermined number of CCEs relative to a location of a first CCE included in the first set of CCEs. receiving a first SA, intended for a first Component Carrier, CC, transmitted from a Node B by using at least one of Control Channel Elements, CCEs, from a first set of CCEs in the PDCCH; and receiving a second SA, intended for a second CC, transmitted from the Node B by using at least one of CCEs from a second set of CCEs in the PDCCH, wherein a location of the second set of CCEs is determined from a location of the first set of CCEs, wherein a location of a second CCE included in the second set of CCEs is shifted by a predetermined number of CCEs relative to a location of a first CCE included in the first set of CCEs.
A screen plate for printing two-dimensionally arranged opening patterns by screen printing, the screen plate comprising: a dummy printing region and a printing region; characterized by: the dummy printing region in which a predetermined pattern (16, 17) is singly or plurally arranged along an edge part of one side or edge parts of two sides parallel to a printing direction of the screen plate; a full-surface printing region for performing full-surface printing, the full-surface printing region being formed into a belt shape at a position closer to a central side of the screen plate than the dummy printing region; and the printing region that is formed at a position closer to the central side than the full-surface printing region and in which the opening patterns are two-dimensionally arranged. a dummy printing region and a printing region; the dummy printing region in which a predetermined pattern (16, 17) is singly or plurally arranged along an edge part of one side or edge parts of two sides parallel to a printing direction of the screen plate; a full-surface printing region for performing full-surface printing, the full-surface printing region being formed into a belt shape at a position closer to a central side of the screen plate than the dummy printing region; and the printing region that is formed at a position closer to the central side than the full-surface printing region and in which the opening patterns are two-dimensionally arranged.
A survival craft comprising a hull formed from inflatable members (12, 13) and mounting a powered propulsion system (18,19) for the survival craft and a superstructure carried by the hull and formed from inflatable members (25,26,29a - 29i), the superstructure providing the hull with additional longitudinal rigidity, characterised in that the propulsion system (18,19) is carried in a propulsion pod formed of rigid material and which includes a deck on which is carried the hull and superstructure when deflated.
A process for making a temporary photochromic patch for an ophthalmic lens comprising the steps of: providing a siloxane base as a first reactant and a siloxane curing agent as a second reactant; first dissolving a photochromic dye into one of the reactants to form a first dye mixture; combining the first dye mixture with the other reactant to initiate a polymerization reaction that will result in a polydimethylsiloxane (PDMS) polymer matrix; completing the polymerization reaction within a form to create a viscoelastic patch; and configuring the patch to a lens shape and temporarily applying the configured patch to an ophthalmic lens to impart photochromic properties, wherein the configuring step includes applying a lubricant to the lens prior to applying the patch to the lens, wherein the lubricant allows the patch to slide on the lens for easy alignment and where the lubricant displaces air bubbles. providing a siloxane base as a first reactant and a siloxane curing agent as a second reactant; first dissolving a photochromic dye into one of the reactants to form a first dye mixture; combining the first dye mixture with the other reactant to initiate a polymerization reaction that will result in a polydimethylsiloxane (PDMS) polymer matrix; completing the polymerization reaction within a form to create a viscoelastic patch; and configuring the patch to a lens shape and temporarily applying the configured patch to an ophthalmic lens to impart photochromic properties, wherein the configuring step includes applying a lubricant to the lens prior to applying the patch to the lens, wherein the lubricant allows the patch to slide on the lens for easy alignment and where the lubricant displaces air bubbles.
A method for producing a product mass, in particular a chocolate mass, as base mass for food, comprising several constituents and a recipe total fat content, using a conching device comprising a conching container, which can be opened and closed in a hermetically sealed manner, comprising the steps of: filling the conching container with a low-fat partial mass, which comprises at least a portion of the several constituents, and which has a fat content, which is lower than the recipe total fat content; first conching of the low-fat partial mass when the conching container is closed; adding a further portion of the several constituents to the low-fat partial mass until reaching a fat content in the range of approximately 11 % to approximately 17 %; second conching of the low-fat partial mass when the conching container is open, while simultaneously actively drying the low-fat partial mass; liquefying the partial mass by adding the remainder of the several constituents, and mixing the latter with the low-fat partial mass by forming a total mass, which represents the product mass and which has at least essentially the recipe total fat content. filling the conching container with a low-fat partial mass, which comprises at least a portion of the several constituents, and which has a fat content, which is lower than the recipe total fat content; first conching of the low-fat partial mass when the conching container is closed; adding a further portion of the several constituents to the low-fat partial mass until reaching a fat content in the range of approximately 11 % to approximately 17 %; second conching of the low-fat partial mass when the conching container is open, while simultaneously actively drying the low-fat partial mass; liquefying the partial mass by adding the remainder of the several constituents, and mixing the latter with the low-fat partial mass by forming a total mass, which represents the product mass and which has at least essentially the recipe total fat content.
A passive dynamic inertial rotor balance system comprising: at least three balancing members fitted onto a rotor shaft at locations of predicted maximum shaft modal deflection, each of said balancing members including at least one chamber, said at least one chamber of each of said balancing members including: a plurality of movable weights; and a viscous fluid located therein, wherein as the shaft accelerates toward an unbalance point, the weights are configured to move within the at least one chamber to a location which is opposite from the unbalance point, wherein at least one balancing member is located near a center portion for a first mode bending and at least two balancing members are located at approximately quarter spans (30,32) for a second mode bending.
Fixation device for affixing a contact element in a housing of a connector, comprising said housing, where said housing comprises a contact element receptacle that is configured to receive at least one contact element, where said fixation device comprises a clamping device that is configured to clamp said at least one contact element in said contact element receptacle with a clamping force directed in a clamping direction, where said contact element at the side facing away from said clamping device can rest at least in sections on a support surface which comprises a deflection surface oriented at an angle to said clamping force, where said deflection surface is configured to deflect said clamping force acting upon said contact element at least component-wise transverse to said clamping force characterized in that the support surface is formed by ribs that are spaced apart. where said housing comprises a contact element receptacle that is configured to receive at least one contact element, where said fixation device comprises a clamping device that is configured to clamp said at least one contact element in said contact element receptacle with a clamping force directed in a clamping direction, where said contact element at the side facing away from said clamping device can rest at least in sections on a support surface which comprises a deflection surface oriented at an angle to said clamping force, where said deflection surface is configured to deflect said clamping force acting upon said contact element at least component-wise transverse to said clamping force characterized in that the support surface is formed by ribs that are spaced apart.
Digging equipment for making panels of deep diaphragms in the ground, the digging equipment being provided with hydraulic apparatuses and comprising a self-propelled base machine provided with service apparatuses, a tracked truck and at least one arm supporting at least one digging tool, in turn provided with digging apparatuses and with at least one device (10, 11) for cutting soil, wherein said device (10, 11) for cutting soil is provided with hydraulic actuators, the digging tool being operatively connected to the base machine through a suspending flexible element which can be wound or unwound by means of a winch located on said base machine, said base machine further comprising a main power engine, capable of supplying the mechanical power required to actuate all the hydraulic apparatuses of the digging equipment, and a hydraulic system consisting of two independent and separate hydraulic circuits (S; U), wherein a first hydraulic circuit is configured to control and supply the service apparatuses of the base machine, including at least a movement apparatus for moving the digging tool, and wherein a second hydraulic circuit is configured to control and supply the digging apparatuses of the digging tool, including at least the hydraulic actuators of said at least one device (10, 11) for cutting soil, the digging equipment being characterised in that said service apparatuses of the base machine are actuated by hydraulic actuators installed on the base machine, whereas said digging apparatuses of the digging tool are actuated by hydraulic actuators (12, 13, 14, 16) installed on the digging tool and connected to the base machine through respective hydraulic supply and discharge pipes (12A, 12B, 13A, 13B, 14A, 14B), wherein each of said two independent and separate hydraulic circuits (S; U) respectively comprises at least one pump assembly (19; 20), at least one hydraulic actuator (8, 12, 13, 14, 16, 41), at least one distributor or control valve (21, 22, 34) for controlling said at least one hydraulic actuator (8, 12, 13, 14, 16, 41), at least one heat exchanger (23; 24) and at least one main tank (25; 26) for accumulating oil, said at least one main tank (25; 26) being arranged on the base machine, and wherein each of said two independent and separate hydraulic circuits (S; U) receives the mechanical power required to actuate the respective pump assembly (19; 20) from the main power engine of the self-propelled base machine.
Formulations containing the active ingredient silibinin wherein said active ingredient is incorporated in: lipid nanoparticle systems of the SLN, Solid Lipid Nanoparticles, and NLC, Nanostructured Lipid Carriers, type; calixarene-based nanostructured systems or micellar and nanoparticle systems based on amphiphilic inulin copolymers; for use in the topical treatment of neurodegenerative ocular diseases selected from: choroidal neovascularization, age-related macular degeneration, macular edema, neovascular glaucoma, retinopathy of prematurity, diabetic retinopathy, uveitis, endophthalmitis, retinitis, choroiditis, chorioretinitis, and retinal complications of systemic diseases. lipid nanoparticle systems of the SLN, Solid Lipid Nanoparticles, and NLC, Nanostructured Lipid Carriers, type; calixarene-based nanostructured systems or micellar and nanoparticle systems based on amphiphilic inulin copolymers; for use in the topical treatment of neurodegenerative ocular diseases selected from: choroidal neovascularization, age-related macular degeneration, macular edema, neovascular glaucoma, retinopathy of prematurity, diabetic retinopathy, uveitis, endophthalmitis, retinitis, choroiditis, chorioretinitis, and retinal complications of systemic diseases.
Hybrid power train for a motor vehicle, comprising - an internal combustion engine; - an electrical machine; - a transmission arrangement for setting up at least two different gear stages (G1, G2), wherein the internal combustion engine and the electrical machine are coupled to an input element of the transmission arrangement; and - a differential which is coupled to the output of the transmission arrangement and is designed to distribute drive power to two drive shafts (20L, 20R), wherein the electrical machine and the internal combustion engine are coupled to a transmission input shaft of the transmission arrangement by means of a spur gear set, wherein the spur gear set has a first gearwheel which is fixedly connected to the transmission input shaft and is in engagement with a second gearwheel, associated with the electrical machine, and with a third gearwheel, associated with the internal combustion engine, characterized in that the electrical machine is arranged coaxially in relation to one of the drive shafts (20L, 20R). - an internal combustion engine; - an electrical machine; - a transmission arrangement for setting up at least two different gear stages (G1, G2), wherein the internal combustion engine and the electrical machine are coupled to an input element of the transmission arrangement; and - a differential which is coupled to the output of the transmission arrangement and is designed to distribute drive power to two drive shafts (20L, 20R),
A medical implant for treating bone defects, having at least one hollow body (1, 21, 51), which delimits an inner chamber in the interior of the hollow body (1, 21, 51), at least one fluid feed line (2, 22, 52), which is connected in fluid-permeable manner with the inner chamber of the hollow body (1, 21, 51), at least one fluid discharge line (3, 23, 53), which is connected in fluid-permeable manner with the inner chamber of the hollow body (1, 21, 51), wherein the hollow body (1, 21, 51) consists at least in places or wholly of at least one plastics material, wherein the at least one plastics material is impermeable to liquids and is permeable to oxygen and to carbon dioxide, such that oxygen is deliverable from a fluid passed through the hollow body (1, 21, 51) to the surroundings of the hollow body (1, 21, 51) and carbon dioxide is absorbable from the surroundings of the hollow body (1, 21, 51) into the fluid, characterized in that the hollow body (1, 21, 51) or the at least one plastics material of the hollow body (1, 21, 51) has a permeability coefficient for oxygen of greater than or equal to 0.5 cm 3 /(m 2 *d*bar) and a permeability coefficient for carbon dioxide of greater than or equal to 0.5 cm 3 /(m 2 *d*bar). at least one hollow body (1, 21, 51), which delimits an inner chamber in the interior of the hollow body (1, 21, 51), at least one fluid feed line (2, 22, 52), which is connected in fluid-permeable manner with the inner chamber of the hollow body (1, 21, 51), at least one fluid discharge line (3, 23, 53), which is connected in fluid-permeable manner with the inner chamber of the hollow body (1, 21, 51), wherein the hollow body (1, 21, 51) consists at least in places or wholly of at least one plastics material, wherein the at least one plastics material is impermeable to liquids and is permeable to oxygen and to carbon dioxide, such that oxygen is deliverable from a fluid passed through the hollow body (1, 21, 51) to the surroundings of the hollow body (1, 21, 51) and carbon dioxide is absorbable from the surroundings of the hollow body (1, 21, 51) into the fluid, characterized in that the hollow body (1, 21, 51) or the at least one plastics material of the hollow body (1, 21, 51) has a permeability coefficient for oxygen of greater than or equal to 0.5 cm 3 /(m 2 *d*bar) and a permeability coefficient for carbon dioxide of greater than or equal to 0.5 cm 3 /(m 2 *d*bar).
A method for producing a centrifugal pump impeller with a base plate which is in one piece with a plurality of pump vanes with a minimum wall thickness d1, and with a cover disc consisting of thermoplastic plastics material which has meltable ribs with a maximum width d2 at their base, which are brought into overlap with the pump vanes and are considerably narrower at their ends facing the pump vanes than at their base, the maximum width d2 of the ribs is considerably smaller than the minimum wall thickness d1 of the pump vanes, the ribs in each case are arranged in the cover disc in a groove-like indentation which is only 0.1 mm to 0.4 mm wider than the pump vanes, and that two parallel-running ribs per pump vane are provided, comprising the method steps: providing a base plate and a cover disc; aligning the cover disc relative to the base plate, applying a sonotrode / a vibration-exciting means to the cover disc and pressing onto the base plate, generation of frictional heat in the regions of contact between the ribs and the pump vanes, melting the ribs, advancing the cover disc in the direction of the pump vanes, intimately connecting the regions which lie against each other and displacing excess material into a region between the pump vanes and the cover disc.