mhurhangee/ep-ind-claims huggingface dataset:
A mucoadhesive composition adapted for preventing and/or treating a pathological reaction of the immune system of an individual by inducing a specific tolerance towards at least one antigen involved in said pathological reaction, comprising chitosan particles loaded with said at least one antigen involved in the pathological reaction, said antigen being a protein, a polypeptide or a peptide, wherein the size of the loaded chitosan particles is from 1 μm to 3 μm, and the chitosan particles are made of chitosan which viscosity is of at least 800 mPa•s when measured according to the Brookfield method with a 1% solution of chitosan in 1% acetic acid.
Heat transfer system, comprising a) a refrigeration circuit comprising a first heat transfer fluid, a compressor, a condenser, an expansion device and an outdoor heat exchanger; b) a cooling circuit comprising a second heat transfer fluid, which comprises or consists of a phase change material, a pump for circulating the second heat transfer fluid around the cooling circuit, a heat exchanger (PHEX) for transferring heat from the second heat transfer fluid to the first heat transfer fluid, and at least one indoor heat exchanger for transferring heat from a space to be cooled to the second heat transfer fluid; c) in the cooling circuit, a sensor system comprising or consisting of a temperature sensor and an electrical resistance sensor, wherein the temperature sensor and the electrical resistance sensor are realized as two separate sensors or as one combined temperature-and-electrical-resistance sensor; d) a controller configured to obtain temperature information (T me) and electrical resistance information (R me) from the sensor system; characterized in that the controller is configured to determine a combined state of phase value (SOP flow) based on the obtained temperature information (T me) and obtained electrical resistance information (R me), and control the operation of the heat transfer system based on the determined combined state of phase value (SOP flow), wherein the term "state of phase" refers to the quality of the heat transfer fluid regarding the amount of crystallisation/solidification of its phase change material. a) a refrigeration circuit comprising a first heat transfer fluid, a compressor, a condenser, an expansion device and an outdoor heat exchanger; b) a cooling circuit comprising a second heat transfer fluid, which comprises or consists of a phase change material, a pump for circulating the second heat transfer fluid around the cooling circuit, a heat exchanger (PHEX) for transferring heat from the second heat transfer fluid to the first heat transfer fluid, and at least one indoor heat exchanger for transferring heat from a space to be cooled to the second heat transfer fluid; c) in the cooling circuit, a sensor system comprising or consisting of a temperature sensor and an electrical resistance sensor, wherein the temperature sensor and the electrical resistance sensor are realized as two separate sensors or as one combined temperature-and-electrical-resistance sensor; d) a controller configured to obtain temperature information (T me) and electrical resistance information (R me) from the sensor system; characterized in that the controller is configured to determine a combined state of phase value (SOP flow) based on the obtained temperature information (T me) and obtained electrical resistance information (R me), and control the operation of the heat transfer system based on the determined combined state of phase value (SOP flow), wherein the term "state of phase" refers to the quality of the heat transfer fluid regarding the amount of crystallisation/solidification of its phase change material.
A rotor assembly for a permanent magnet machine configured to rotate about a longitudinal axis, the rotor assembly comprising: a rotor shaft; and at least one rotor module configured to generate a magnetic field, whose magnetic field interacts with a stator magnetic field to produce a torque, the at least one rotor module disposed about the rotor shaft, the at least one rotor module comprising: a plurality of permanent magnets; and a sleeve component including a plurality of cavities formed therein, wherein each of the plurality of cavities having disposed therein one or more of the plurality of permanent magnets and being axially and circumferentially disposed around the rotor shaft to retain the one or more permanent magnets therein and form an interior permanent magnet motor; characterised in that the sleeve component is configured as a segmented component including a plurality of individual sleeve segments and wherein adjacent sleeve segments are cooperatively adjoined. a rotor shaft; and at least one rotor module configured to generate a magnetic field, whose magnetic field interacts with a stator magnetic field to produce a torque, the at least one rotor module disposed about the rotor shaft, the at least one rotor module comprising: a plurality of permanent magnets; and a plurality of permanent magnets; and
Fuel cell unit as a fuel cell stack for electrochemically generating electrical energy, comprising - fuel cells which are arranged in a stacked manner and have proton exchange membranes, anodes, cathodes, gas diffusion layers and bipolar plates, - power lines for electrical connection to the bipolar plates of the fuel cells and for monitoring the fuel cells by means of detecting at least one parameter of the fuel cells, and the power lines are electrically connected to connection elements, - connection elements for fastening to the bipolar plates using fixing means and for electrically conductive connection to the bipolar plates, and the connection elements are electrically conductively connected to the power lines, so that the power lines are electrically conductively connected to the bipolar plates by means of the connection elements, - mating connection elements which are formed on the bipolar plates, and the connection elements are fastened to the mating connection elements using fixing means, so that the connection elements are electrically conductively connected to the mating connection elements and bipolar plates, characterized in that indicator elements (59, 60, 61) are formed on the bipolar plates for optically monitoring for the correct arrangement of the connection elements on the mating connection elements, and the indicator elements can be optically detected from outside the fuel cell stack. - fuel cells which are arranged in a stacked manner and have proton exchange membranes, anodes, cathodes, gas diffusion layers and bipolar plates, - power lines for electrical connection to the bipolar plates of the fuel cells and for monitoring the fuel cells by means of detecting at least one parameter of the fuel cells, and the power lines are electrically connected to connection elements, - connection elements for fastening to the bipolar plates using fixing means and for electrically conductive connection to the bipolar plates, and the connection elements are electrically conductively connected to the power lines, so that the power lines are electrically conductively connected to the bipolar plates by means of the connection elements, - mating connection elements which are formed on the bipolar plates, and the connection elements are fastened to the mating connection elements using fixing means, so that the connection elements are electrically conductively connected to the mating connection elements and bipolar plates,
A method for producing an assembly for an energy supply system, with an energy storage module and a plate-shaped cooling element, wherein a deformable, adhesive heat-conducting layer is applied between a contact side of the energy storage module and a contact side of the cooling element over the entire contact faces between the energy storage module and cooling element, wherein the heat-conducting layer comprising a continuous high-voltage protective film which is adhesive on one side, on both sides or is non-adhesive and at least one continuous layer of a heat-conducting adhesive or a heat-conducting casting compound, characterised in that a layer of the heat-conducting adhesive or of the heat-conducting casting compound is applied to the contact sides (20, 22) of the energy storage module and cooling element, which layer is partially cured, the partially cured layer being cured to such an extent that it is already dimensionally stable, but still adhesive, with a non-adhesive high-voltage protective film being placed between the layers, or a layer of the heat-conducting adhesive or of the heat-conducting casting compound is applied to the contact sides (20, 22) of the energy storage module and cooling element, which layer is completely cured, the high-voltage protective film being adhesive on both sides, or a layer of the heat-conducting adhesive or of the heat-conducting casting compound is applied only to the contact side of the energy storage module, which layer is completely cured, and the high-voltage film is adhesive on both sides and is glued to the contact side of the cooling element, or a layer of the heat-conducting adhesive or of the heat-conducting casting compound is applied only to the contact side of the cooling element, which layer is completely cured, and the high-voltage film is adhesive on both sides and is glued to the contact side of the energy storage module, or a layer of the heat-conducting adhesive or of the heat-conducting casting compound is applied to the contact side (20, 22) of the energy storage module or of the cooling element, which layer is completely cured, and a still-deformable, non-cured layer of the heat-conducting adhesive or of the heat-conducting casting compound is applied to the contact side (22, 20) of the cooling element or of the energy storage module, the high-voltage film lying between the two layers of the heat-conducting adhesive or of the heat-conducting casting compound, and then the energy storage module and the cooling element are pressed together, with a dimensionally stable adhesive connection being produced between the energy storage module and the cooling element by means of the heat-conducting layer, which connection connects the energy storage module permanently to the cooling element.
A light fixture comprising: a base frame extending longitudinally along a first axis, a translucent cover arranged to the base frame, at least one end cap, wherein said at least one end cap is rotationally moveable around a second axis relative to the base frame between an open position and a closed position, such that the translucent cover is fixed relative to the base frame by the at least one end cap being in the closed position, and wherein the translucent cover is removable from the base frame when the at least one end cap is in the open position, wherein the first axis is perpendicular to the second axis, and wherein the at least one end cap is held in the closed position by means of attaching means (42, 23), characterized in that the attaching means (42, 23) comprise at least one first attaching member and at least one second attaching member configured to adhere to each other. a base frame extending longitudinally along a first axis, a translucent cover arranged to the base frame, at least one end cap,
Mounting system of a station, in particular a door station, of a house communication system, • wherein a device insert of the station comprises a mounting plate, the base side of said mounting plate being provided with two retaining brackets that each comprise a guide arm, • wherein an in-wall box or an on-wall casing base part of the station comprises a mounting frame (23,23') having bent areas on its lower side, which bent areas form guide connecting members for engaging with the guide arms, • wherein these guide connecting members are provided on the insertion side with stops which form narrowed insertion orifices of the guide connecting members for inserting the guide arms, • wherein the height of the guide connecting members of the mounting frame (23, 23') is greater than the height and the width of the guide arms, • wherein the height of the insertion orifices of the guide connecting members is greater than the width but less than the height of the guide arms, • wherein the extent to which the guide connecting members can move when the device insert is in the folded-out position is limited by virtue of the narrowed insertion orifices, • wherein the extent to which the guide arms can move when the device insert is in the folded-in position is limited by virtue of the stops of the insertion orifices, • wherein the guide arms can be removed through the insertion orifices upon raising the device insert when in the folded-in position. • wherein a device insert of the station comprises a mounting plate, the base side of said mounting plate being provided with two retaining brackets that each comprise a guide arm, • wherein an in-wall box or an on-wall casing base part of the station comprises a mounting frame (23,23') having bent areas on its lower side, which bent areas form guide connecting members for engaging with the guide arms, • wherein these guide connecting members are provided on the insertion side with stops which form narrowed insertion orifices of the guide connecting members for inserting the guide arms, • wherein the height of the guide connecting members of the mounting frame (23, 23') is greater than the height and the width of the guide arms, • wherein the height of the insertion orifices of the guide connecting members is greater than the width but less than the height of the guide arms, • wherein the extent to which the guide connecting members can move when the device insert is in the folded-out position is limited by virtue of the narrowed insertion orifices, • wherein the extent to which the guide arms can move when the device insert is in the folded-in position is limited by virtue of the stops of the insertion orifices, • wherein the guide arms can be removed through the insertion orifices upon raising the device insert when in the folded-in position.
Stringed musical instrument comprising along the length of its neck an elongated structure formed by a collection of perpendicular lengths, connected to each other, which divide the fingerboard into fragments; the elongated structure being manufactured in a single piece, having a length longer than the neck and reaching the body and/or head stock of the instrument; characterised in that: the fragments are independent fragments which are separable from each other and from the elongated structure.
An airfoil blade comprising a cermet coating having a compressive residual stress of greater than about 414 MPa (60 ksi), wherein said cermet coating is disposed on a surface of a leading edge of the airfoil blade or on a surface of a metallic erosion-resistant strip which is disposed on the leading edge of the airfoil blade, and further wherein said cermet coating is disposed in a portion of the airfoil blade closer to its axis of rotation than another portion of the airfoil blade that does not have a cermet coating with compressive residual stress greater than 414 MPa (60 ksi).
A stereoscopic video pair generating method, wherein, based on auxiliary display information, for processing a three-dimensional video sequence to obtain a stereoscopic video pair, where the stereoscopic video pair is displayed on a stereoscopic display D1; the auxiliary display information comprises camera viewpoint position information, virtual viewpoint position information and display scaling factor S1; the camera viewpoint position information indicates the position of a camera viewpoint C of a three-dimensional video sequence; the virtual viewpoint information indicates the position of a virtual viewpoint P1; the display scaling factor S 1 is a ratio of horizontal resolution Res 1 to horizontal width W1 of a stereoscopic display D1, i.e, S1=Res1/W1; the processing of a three-dimensional video sequence to obtain a stereoscopic video pair comprises: 1) choosing a video sequence of the camera viewpoint C of the three-dimensional video sequence as a video sequence V1 of the stereoscopic video pair; 2) determining a virtual viewpoint P2, and synthesizing a virtual viewpoint video sequence of the virtual point P2 based on depth values as a video sequence V2 of the stereoscopic video sequence, where the virtual viewpoint P2 is on a line between the camera viewpoint C and the virtual viewpoint P1, and the distance between the virtual viewpoint P2 and the camera viewpoint C is S1/K times of the distance between the camera viewpoint C and virtual viewpoint P1, where K is the ratio of the horizontal resolution Res3 to the horizontal width W3 of a pre-defined display D3. 1) choosing a video sequence of the camera viewpoint C of the three-dimensional video sequence as a video sequence V1 of the stereoscopic video pair; 2) determining a virtual viewpoint P2, and synthesizing a virtual viewpoint video sequence of the virtual point P2 based on depth values as a video sequence V2 of the stereoscopic video sequence, where the virtual viewpoint P2 is on a line between the camera viewpoint C and the virtual viewpoint P1, and the distance between the virtual viewpoint P2 and the camera viewpoint C is S1/K times of the distance between the camera viewpoint C and virtual viewpoint P1, where K is the ratio of the horizontal resolution Res3 to the horizontal width W3 of a pre-defined display D3.
A method for supporting wireless roaming among coverage areas of a plurality of access points (210, 220, 230, 240), comprising: detecting, by a first access point of the plurality of access points (210, 220, 230, 240), signal strength of signals from a client device that is wirelessly connected to the first access point; comparing the signal strength with a threshold, and if the signal strength is less than the threshold, disconnecting, by the first access point, the client device from the first access point; transmitting, by the first access point, a signal indicating the disconnection of the client device to an access controller; updating, by the access controller, connection status information to indicate the disconnection of the client device from the first access point; transmitting, by the access controller, the connection status information of the client device to the plurality of access points (210, 220, 230, 240); and in response to receiving the connection status information that indicates the disconnection of the client device from the first access point, connecting, by a second access point of the plurality of access points (210, 220, 230, 240), the client device with the second access point of the plurality of access points (210, 220, 230, 240). detecting, by a first access point of the plurality of access points (210, 220, 230, 240), signal strength of signals from a client device that is wirelessly connected to the first access point; comparing the signal strength with a threshold, and if the signal strength is less than the threshold, disconnecting, by the first access point, the client device from the first access point; transmitting, by the first access point, a signal indicating the disconnection of the client device to an access controller; updating, by the access controller, connection status information to indicate the disconnection of the client device from the first access point; transmitting, by the access controller, the connection status information of the client device to the plurality of access points (210, 220, 230, 240); and in response to receiving the connection status information that indicates the disconnection of the client device from the first access point, connecting, by a second access point of the plurality of access points (210, 220, 230, 240), the client device with the second access point of the plurality of access points (210, 220, 230, 240).
Cold-rolled or hot-rolled steel strip made of an air-hardenable multiphase steel with a minimum tensile strength in the longitudinal and transverse directions to the rolling direction of 950 MPa before the air-hardening, with excellent processing properties consisting of the elements (contents in % by weight): C ≥ 0.075 to 0.115 Si ≥ 0.400 to ≤ 0.500 Mn ≥ 1.900 to ≤ 2.350 Cr ≥ 0.200 to ≤ 0.500 Al ≥ 0.005 to ≤ 0.060 N ≥ 0.0020 to ≤ 0.0120 S ≤ 0.0030 Nb ≥ 0.005 to ≤ 0.060 Ti ≥ 0.005 to ≤ 0.060 B ≥ 0.0005 to ≤ 0.0030 Mo ≥ 0.200 to ≤ 0.300 Ca ≥ 0.0005 to ≤ 0.0060 Cu ≤ 0.050 Ni ≤ 0.050 remainder iron, including usual steel-accompanying impurities arising from smelting, in which, with a view to as broad a process window as possible during continuous annealing of hot or cold bands from this steel, the total content of Mn+Si+Cr is set as a function of the strip thickness to be produced, as follows: up to 1.00 mm: Sum of Mn+Si+Cr ≥ 2.800 and ≤ 3.000% by weight over 1.00 to 2.00 mm: Sum of Mn+Si+Cr ≥ 2.850 and ≤ 3.100% by weight over 2.00 mm: Sum of Mn+Si+Cr ≥ 2.900 and ≤ 3.200% by weight C ≥ 0.075 to 0.115 Si ≥ 0.400 to ≤ 0.500 Mn ≥ 1.900 to ≤ 2.350 Cr ≥ 0.200 to ≤ 0.500 Al ≥ 0.005 to ≤ 0.060 N ≥ 0.0020 to ≤ 0.0120 S ≤ 0.0030 Nb ≥ 0.005 to ≤ 0.060 Ti ≥ 0.005 to ≤ 0.060 B ≥ 0.0005 to ≤ 0.0030 Mo ≥ 0.200 to ≤ 0.300 Ca ≥ 0.0005 to ≤ 0.0060 Cu ≤ 0.050 Ni ≤ 0.050 remainder iron, including usual steel-accompanying impurities arising from smelting, in which, with a view to as broad a process window as possible during continuous annealing of hot or cold bands from this steel, the total content of Mn+Si+Cr is set as a function of the strip thickness to be produced, as follows: up to 1.00 mm: Sum of Mn+Si+Cr ≥ 2.800 and ≤ 3.000% by weight over 1.00 to 2.00 mm: Sum of Mn+Si+Cr ≥ 2.850 and ≤ 3.100% by weight over 2.00 mm: Sum of Mn+Si+Cr ≥ 2.900 and ≤ 3.200% by weight up to 1.00 mm: Sum of Mn+Si+Cr ≥ 2.800 and ≤ 3.000% by weight over 1.00 to 2.00 mm: Sum of Mn+Si+Cr ≥ 2.850 and ≤ 3.100% by weight over 2.00 mm: Sum of Mn+Si+Cr ≥ 2.900 and ≤ 3.200% by weight