mhurhangee/patent-ind-claim-en huggingface dataset:
Tube bundle heat exchanger comprising a tube bundle in a housing , the housing having a first inlet and a first outlet for a first medium (M1) for passage through the tube bundle and a second inlet and a second outlet for a second medium (M2) for passage through a flow space surrounding the tube bundle within the housing , the ends of the tube bundle being arranged in a tube sheet that separates the flow space for the second medium (M2) from the first medium (M1), a separating body being arranged as a flow distributor between the first inlet and the tube sheet , which prevents the first medium (M1) from flowing against the tube sheet and which has inlet tubes that span an equalisation space between the separating body and the tube sheet and which project into the individual tubes of the tube bundle in order to conduct the first medium (M1) into the tubes while bypassing the tube sheet , characterised in that the first inlet is connected to a first group (G1) of tubes of the tube bundle , the first group (G1) having an outer envelope surface which is predominantly adjacent to an envelope surface of a second group (G2) of tubes that is connected in a fluid-conducting manner to the first group (G1) of tubes , and wherein the first outlet is connected to the second group (G2) of tubes .
Output device for a vending machine, in particular for a drinks machine, comprising a front panel having an output opening , comprising a rotatable output carousel , comprising a locking panel which is separate from the output carousel and which is adjustable between an open position, in which it allows access to the output carousel from the outside through the output opening , and a closed position, in which it blocks access to the output carousel , the locking panel having an axis of rotation about which it rotates for adjustment between the open and the closed position; and comprising a shared drive , the shared drive constantly driving a rotation of the output carousel during operation and the shared drive intermittently, when an output is to take place through the output opening , jointly driving an adjustment of the locking panel which is separate from the rotation of the output carousel , and the locking panel not being driven in positions in which no output is intended to take place, a shared transmission element being provided which transmits rotational movements of the drive to a drive axle of the output carousel and intermittently engages in a guide , provided on the locking panel, so as to adjust the locking panel .
A biologically active food additive for use in the treatment of myocardial ischemia, characterized in that it comprises hawthorn flowers and/or berries and/or leaves, royal jelly and excipient in a following ratio of ingredients: - hawthorn flowers and/or berries and/or leaves: from 61 to 90 wt. %, - royal jelly: from 10 to 24 wt.%, - excipients: from 0 to 29 wt.%. - hawthorn flowers and/or berries and/or leaves: from 61 to 90 wt. %, - royal jelly: from 10 to 24 wt.%, - excipients: from 0 to 29 wt.%.
A Doherty amplifier comprising: a first filter circuit to, when an input signal lying in a first frequency band is inputted, output a first input signal obtained by attenuating the input signal lying in the first frequency band by a first amount of attenuation, and to, when an input signal lying in a second frequency band different from the first frequency band is inputted, output a second input signal obtained by allowing passage of the input signal lying in the second frequency band; a second filter circuit to, when an input signal lying in the first frequency band is inputted, output a third input signal obtained by attenuating the input signal lying in the first frequency band by a second amount of attenuation smaller than the first amount of attenuation, and to, when an input signal lying in the second frequency band is inputted, output a fourth input signal obtained by attenuating the input signal lying in the second frequency band by a third amount of attenuation larger than or equal to the first amount of attenuation; a first amplifier in which a gate bias voltage is fixed, to operate as an auxiliary amplifier when the first input signal from the first filter circuit is inputted, and to operate as a main amplifier when the second input signal from the first filter circuit is inputted; and a second amplifier in which a gate bias voltage is fixed, to operate as the main amplifier when the third input signal from the second filter circuit is inputted, and to operate as the auxiliary amplifier when the fourth input signal from the second filter circuit is inputted. a first filter circuit to, when an input signal lying in a first frequency band is inputted, output a first input signal obtained by attenuating the input signal lying in the first frequency band by a first amount of attenuation, and to, when an input signal lying in a second frequency band different from the first frequency band is inputted, output a second input signal obtained by allowing passage of the input signal lying in the second frequency band; a second filter circuit to, when an input signal lying in the first frequency band is inputted, output a third input signal obtained by attenuating the input signal lying in the first frequency band by a second amount of attenuation smaller than the first amount of attenuation, and to, when an input signal lying in the second frequency band is inputted, output a fourth input signal obtained by attenuating the input signal lying in the second frequency band by a third amount of attenuation larger than or equal to the first amount of attenuation; a first amplifier in which a gate bias voltage is fixed, to operate as an auxiliary amplifier when the first input signal from the first filter circuit is inputted, and to operate as a main amplifier when the second input signal from the first filter circuit is inputted; and a second amplifier in which a gate bias voltage is fixed, to operate as the main amplifier when the third input signal from the second filter circuit is inputted, and to operate as the auxiliary amplifier when the fourth input signal from the second filter circuit is inputted.
System (S) for allowing the evacuation of buildings (E) in case of earthquake or disaster in general, said building (E) having one or more compartments (C), such as an apartment, a corridor and the like, said system (S) comprising a remote control central unit , provided with transceiver means, one or more peripheral units , each one located in a compartment (C) to be monitored, said one or more peripheral units being provided with wireless transceiver means and being connectable to one or more further peripheral units and said control central unit , one or more doors (P) each one having one or more wings , each of said peripheral units being housed in one respective of said wings of a respective door (P), the overall arrangement of said door (P) being such as to allow the evacuation of any people from the respective compartment (C), in which it is installed and the protection of said peripheral unit installed in the wing in case of a possible earthquake or natural disaster in general, and detection and communication means , functionally connected to said peripheral unit , adapted to detect physical and biological data within the volume of said compartments (C) of said building (E), so that said peripheral unit is capable to transmit them to said central control unit .
A control system for fusing different sensor data together to determine an orientation of a vehicle, comprising: a hardware processor to: receive visual heading data for the vehicle from a camera system ; receive global navigation satellite system (GNSS) heading data from a GNSS system ; receive inertial measurement unit (IMU) heading data for the vehicle from an IMU ; monitor a speed of the vehicle ; assign weights to the visual heading data , the GNSS heading data and the IMU heading data based on operating conditions of the vehicle that vary accuracy associated with the visual heading data , the GNSS heading data and the IMU heading data , wherein - lower weights are assigned to the GNSS heading data when the vehicle is traveling at a speed below a given value, - a higher weight is assigned to the GNSS heading data when the vehicle is traveling at higher speeds, - a zero weight is assigned to the GNSS heading data and only the visual heading data is used to determine the heading of the vehicle when the vehicle is stopped; and use the weighted visual heading data , the weighted GNSS heading data and the weighted IMU heading data to determine a heading of the vehicle , wherein the vehicle is steered based on the heading of the vehicle . receive visual heading data for the vehicle from a camera system ; receive global navigation satellite system (GNSS) heading data from a GNSS system ; receive inertial measurement unit (IMU) heading data for the vehicle from an IMU ; monitor a speed of the vehicle ; assign weights to the visual heading data , the GNSS heading data and the IMU heading data based on operating conditions of the vehicle that vary accuracy associated with the visual heading data , the GNSS heading data and the IMU heading data , wherein - lower weights are assigned to the GNSS heading data when the vehicle is traveling at a speed below a given value, - a higher weight is assigned to the GNSS heading data when the vehicle is traveling at higher speeds, - a zero weight is assigned to the GNSS heading data and only the visual heading data is used to determine the heading of the vehicle when the vehicle is stopped; and - lower weights are assigned to the GNSS heading data when the vehicle is traveling at a speed below a given value, - a higher weight is assigned to the GNSS heading data when the vehicle is traveling at higher speeds, - a zero weight is assigned to the GNSS heading data and only the visual heading data is used to determine the heading of the vehicle when the vehicle is stopped; and use the weighted visual heading data , the weighted GNSS heading data and the weighted IMU heading data to determine a heading of the vehicle , wherein the vehicle is steered based on the heading of the vehicle .
A magnet holder for fastening a sensor magnet to a motor shaft of an electric motor , with a receiving recess for the sensor magnet and a fastening region for fastening to the motor shaft , wherein a stop separates the receiving recess and the fastening region from each other and has an opening , wherein the receiving recess is radially limited by a wall which has over its periphery a plurality of weak points of reduced wall thickness which are formed such that free spaces remain between the weak points and the sensor magnet arranged in the receiving recess , wherein the sensor magnet on either side of the weak points is held in a form-fit in the receiving recess by wall regions of a greater wall thickness and wherein the free spaces are pneumatically connected to the opening by way of grooves and serve as a ventilation path during pressing onto the motor shaft.
Extruded profile , in particular multi-chamber profile, comprising several sections and at least one junction , wherein sections are connected by a junction , wherein the junction comprises varying curvatures and is formed of several partially rounded-off triangles wherein the triangles have in-circles with different radii, characterised in that the triangles are arranged adjoining each other and are designed by way of the traction triangle method.
Method for producing an acoustic absorption structure comprising an acoustically resistive structure , a cellular structure , a reflective layer and a plurality of acoustic elements each comprising an enclosure positioned in the cellular structure and having a mouth delimited by an edge pressed against the acoustically resistive structure so that the enclosure and the acoustically resistive structure delimit a cavity , the method comprising: - a step of forming of a skin forming the enclosures of the acoustic elements by adding a resin onto a mould having a base on which there are positioned protruding forms shaped as the cavities of the acoustic elements , - a step of docking of the mould supporting the resin and of a cellular structure , the resin being inserted between the mould and the cellular structure , - a step of polymerization of the resin in order to simultaneously obtain a hardening of the skin and of the join between the skin and the cellular structure , and - a step of positioning of the acoustically resistive structure and of the reflective layer . - a step of forming of a skin forming the enclosures of the acoustic elements by adding a resin onto a mould having a base on which there are positioned protruding forms shaped as the cavities of the acoustic elements , - a step of docking of the mould supporting the resin and of a cellular structure , the resin being inserted between the mould and the cellular structure , - a step of polymerization of the resin in order to simultaneously obtain a hardening of the skin and of the join between the skin and the cellular structure , and - a step of positioning of the acoustically resistive structure and of the reflective layer .
A connection unit for connecting an electrical supply line to an exhaust-gas heater of an exhaust system of an internal combustion engine, comprising: - a connection element having an electrically conductive connection-element body that is elongate in the direction of a longitudinal axis (L), the connection element having an exhaust-gas heater connection region in a first axial end region and having a supply-line connection region in a second axial end region , the supply-line connection region comprising an end portion of the connection-element body , - a carrier element for fixing the connection unit to an exhaust-system component , the carrier element having a carrier-element opening through which the connection-element body passes at a radial distance from the carrier element , - a support unit for axially and radially supporting the connection element on the carrier element , the support unit comprising a first support element of electrically insulating material supported on the carrier element in a first axial direction (R 1 ) and radially outwardly, and a second support element of electrically insulating material supported on the carrier element in the second axial direction (R 2 ) and radially outwardly, characterized in that the supply-line connection region comprises a radial projection of the connection-element body forming an integral part of said connection-element body and adjoining the end portion , and in that the first support element is supported in relation to the radial projection in a second axial direction (R 2 ) opposed to the first axial direction (R 1 ). - a connection element having an electrically conductive connection-element body that is elongate in the direction of a longitudinal axis (L), the connection element having an exhaust-gas heater connection region in a first axial end region and having a supply-line connection region in a second axial end region , the supply-line connection region comprising an end portion of the connection-element body , - a carrier element for fixing the connection unit to an exhaust-system component , the carrier element having a carrier-element opening through which the connection-element body passes at a radial distance from the carrier element , - a support unit for axially and radially supporting the connection element on the carrier element , the support unit comprising a first support element of electrically insulating material supported on the carrier element in a first axial direction (R 1 ) and radially outwardly, and a second support element of electrically insulating material supported on the carrier element in the second axial direction (R 2 ) and radially outwardly,
A method for manufacturing an integrated computational element core, the method comprising: thermally evaporating a material utilizing an e-beam source to deposit the material on a substrate , wherein the material is deposited to establish a shape of the integrated computational element core having a number of alternating layers of Nb 2 O 5 and quartz, the substrate and the layers having different complex indices of refraction, wherein the number, material, spacing and thickness of the layers, the material of the substrate, and the shape define transmission, reflection, and absorptive electromagnetic intensity as a function of wavelength, further comprising: evaluating the performance of the integrated computational element core in situ via an optical monitor assembly to measure transmission, reflection, and absorption functions of the integrated computational element core during the manufacturing process; adjusting the deposition of the material in response to the performance of the integrated computational element core by varying e-beam intensities and strengths to control the shape of the integrated computational element core to thereby control the deposition of the material and therefore transmission shape of the integrated computational element core. thermally evaporating a material utilizing an e-beam source to deposit the material on a substrate , wherein the material is deposited to establish a shape of the integrated computational element core having a number of alternating layers of Nb 2 O 5 and quartz, the substrate and the layers having different complex indices of refraction, wherein the number, material, spacing and thickness of the layers, the material of the substrate, and the shape define transmission, reflection, and absorptive electromagnetic intensity as a function of wavelength, further comprising: evaluating the performance of the integrated computational element core in situ via an optical monitor assembly to measure transmission, reflection, and absorption functions of the integrated computational element core during the manufacturing process; adjusting the deposition of the material in response to the performance of the integrated computational element core by varying e-beam intensities and strengths to control the shape of the integrated computational element core to thereby control the deposition of the material and therefore transmission shape of the integrated computational element core.
A front bumper skin provided with a mounting opening suitable for mounting a headlight , wherein the front bumper skin comprises a covering member arranged along the edge of the mounting opening to shield a gap at the edge of the mounting opening , and wherein the covering member at least covers the lower edge of the mounting opening , characterized in that the covering member is configured as a substantially L-shape and comprises a first covering part arranged along the lower edge of the mounting opening and a second covering part extending from the first covering part along the side edge of the mounting opening.
A detection device for detecting a presence of at least one drying device for drying H 2 O 2 at at least one package and the drying device having a specific pressure signature, comprising, - means for detecting a characteristic linked to the specific pressure signature of the at least one drying device, - means for determining if the at least one drying device is present based on the detected characteristic, characterized in that the means for determining is adapted to detect the voltage of a fan that is needed to maintain a constant pressure at the at least one drying device and the means for determining is adapted to analyse the voltage for the characteristic that is linked to the specific pressure signature of the at least one drying device. - means for detecting a characteristic linked to the specific pressure signature of the at least one drying device, - means for determining if the at least one drying device is present based on the detected characteristic,
A vehicle underbody of a military vehicle , in particular a vehicle hull, having a floor and a side wall arranged at an angle to the floor and a mine protection for protecting a military vehicle from detonating mines , having two armor plates arranged at an angle to one another, characterized in that the armor plates are engaged with one another by means of a support connection for mutual support in the event of detonation forces occurring.
A method for testing a physical hardware device by a virtual hardware device using a virtualization system , the method comprising: determining a variable of application software for the physical hardware device emulated by the virtual hardware device ; determining a memory location of the variable through which the virtual hardware device exchanges information with an external hardware resource ; and exchanging the information, by the virtual hardware device, with the external hardware resource via the memory location of the variable, wherein the memory location of the variable used by the virtual hardware device is the same as a memory location of the variable used by the physical hardware device. determining a variable of application software for the physical hardware device emulated by the virtual hardware device ; determining a memory location of the variable through which the virtual hardware device exchanges information with an external hardware resource ; and exchanging the information, by the virtual hardware device, with the external hardware resource via the memory location of the variable, wherein the memory location of the variable used by the virtual hardware device is the same as a memory location of the variable used by the physical hardware device.