mhurhangee/patent-ind-claim-en huggingface dataset:
A rotating electrical machine comprising: a stator with a stator coil ; a connection arm and an insulating hose at a stator coil end portion of the stator coil ; and a first hollow metal part as a pipe component for a refrigerant flow path of the rotating electrical machine for cooling the stator coil with a refrigerant; wherein the connection arm couples the stator coil and a power supply terminal, and the insulating hose is coupled to the stator coil and the connection arm through the first hollow metal part in order to supply the refrigerant to the stator coil and the connection arm ; wherein the first hollow metal part includes a bend, a first end coupled to one end of the bend, and a second end coupled to the other end of the bend; wherein at least a part of the bend is formed of stainless steel , and the first end and the second end are formed of oxygen-free copper ; and wherein the first hollow metal part is formed integrally by joining a portion formed of stainless steel at the bend and portions of the first and second ends by HIP diffusion bonding. a stator with a stator coil ; a connection arm and an insulating hose at a stator coil end portion of the stator coil ; and a first hollow metal part as a pipe component for a refrigerant flow path of the rotating electrical machine for cooling the stator coil with a refrigerant; wherein the connection arm couples the stator coil and a power supply terminal, and the insulating hose is coupled to the stator coil and the connection arm through the first hollow metal part in order to supply the refrigerant to the stator coil and the connection arm ; wherein the first hollow metal part includes a bend, a first end coupled to one end of the bend, and a second end coupled to the other end of the bend; wherein at least a part of the bend is formed of stainless steel , and the first end and the second end are formed of oxygen-free copper ; and wherein the first hollow metal part is formed integrally by joining a portion formed of stainless steel at the bend and portions of the first and second ends by HIP diffusion bonding.
Method for determining an item of predicted acceleration information which describes a future acceleration potential of an electric motor vehicle having an electric motor fed by a battery as a drive apparatus, in the electric motor vehicle , comprising the following steps: - providing an item of power prediction information about the electric motor which describes a predicted available acceleration power of the electric motor for at least one future time period, - determining the item of acceleration information from the item of power prediction information using predictive route data supplied by a navigation system for the time period, wherein predictive route data describing a curve for a route section ahead are used, wherein a potential longitudinal component of the acceleration increasing the longitudinal speed of the electric power vehicle is determined as the item of acceleration information , characterised in that a driver assistance system , which is an ACC system or a cruise control system, uses the item of determined acceleration information to check up to which value a setting speed which can be set by the driver is achievable, wherein setting speeds which are unachievable are blocked at an early stage. - providing an item of power prediction information about the electric motor which describes a predicted available acceleration power of the electric motor for at least one future time period, - determining the item of acceleration information from the item of power prediction information using predictive route data supplied by a navigation system for the time period, wherein predictive route data describing a curve for a route section ahead are used, wherein a potential longitudinal component of the acceleration increasing the longitudinal speed of the electric power vehicle is determined as the item of acceleration information ,
A membrane comprising: a first membrane and a second membrane , a first hinge structure disposed between the first membrane and the second membrane , wherein first hinge structure comprises same material as the first and second membranes and is a bend dominated elastic component built into the surface of the first and second membranes , wherein the stiffness of the hinge structure is controlled by the length and thickness parameters of the hinge structure, a cover layer disposed above the second membrane , a viscoelastic material disposed between the second membrane and the cover layer and further characterised in that it comprises: a first weight disposed at a center portion of the second membrane ; one or more stiffening ribs extending away from the center portion of the second membrane in a spoke pattern; and a damping material coupled to the first weight . a first membrane and a second membrane , a first hinge structure disposed between the first membrane and the second membrane , wherein first hinge structure comprises same material as the first and second membranes and is a bend dominated elastic component built into the surface of the first and second membranes , wherein the stiffness of the hinge structure is controlled by the length and thickness parameters of the hinge structure, a cover layer disposed above the second membrane , a viscoelastic material disposed between the second membrane and the cover layer and further characterised in that it comprises: a first weight disposed at a center portion of the second membrane ; one or more stiffening ribs extending away from the center portion of the second membrane in a spoke pattern; and a damping material coupled to the first weight . a first weight disposed at a center portion of the second membrane ; one or more stiffening ribs extending away from the center portion of the second membrane in a spoke pattern; and a damping material coupled to the first weight .
A manifold for a medicament delivery device configured to deliver discrete doses of medicament contained in a plurality of individual compartments spaced along a carrier strip and sealed by a sealing layer to form a medicament carrier , the manifold comprising: at least one opening mechanism comprising a release member arranged to engage between the carrier strip and the sealing layer of a medicament carrier so as to separate the sealing layer from the carrier strip and thereby open a compartment of the medicament carrier as it is advanced into an entrainment position; wherein the release member includes a surface configured to cover the opened compartment when in the entrainment position so as substantially to contain the medicament dose of said opened compartment; wherein the opening mechanism further comprises a cylindrical indexing wheel having a plurality of indentations spaced around its exterior surface, each indentation configured to receive a compartment of the medicament carrier therein such that rotation of the indexing wheel advances the medicament carrier and thereby moves compartments of the medicament carrier sequentially into the entrainment position; wherein the indexing wheel is positioned adjacent said surface of the release member such that the separated carrier strip passes between the indexing wheel and the release member; and wherein, while in the entrainment position, the opened compartment is retained within the indentation of the indexing wheel into which it is received, whereby subsequent rotation of the indexing wheel allows the compartment to be released from said indent. at least one opening mechanism comprising a release member arranged to engage between the carrier strip and the sealing layer of a medicament carrier so as to separate the sealing layer from the carrier strip and thereby open a compartment of the medicament carrier as it is advanced into an entrainment position; wherein the release member includes a surface configured to cover the opened compartment when in the entrainment position so as substantially to contain the medicament dose of said opened compartment; wherein the opening mechanism further comprises a cylindrical indexing wheel having a plurality of indentations spaced around its exterior surface, each indentation configured to receive a compartment of the medicament carrier therein such that rotation of the indexing wheel advances the medicament carrier and thereby moves compartments of the medicament carrier sequentially into the entrainment position; wherein the indexing wheel is positioned adjacent said surface of the release member such that the separated carrier strip passes between the indexing wheel and the release member; and wherein, while in the entrainment position, the opened compartment is retained within the indentation of the indexing wheel into which it is received, whereby subsequent rotation of the indexing wheel allows the compartment to be released from said indent.
Method for preparing to manage a tree plantation area, for the production of fuel wood and logs with short rotation plantations, comprising the steps of determining the number of Z-trees (Z) to be planted, determining the positions of the Z-trees (Z) in a plurality of rows at predetermined distances from each other, determining the positions of the fuel wood trees (E), in their own rows between the rows of Z-trees, wherein additional fuel wood trees (E) are provided as protection trees (E2) at predetermined positions in the Z-tree rows and/or fuel wood trees (E) are also provided within a Z-tree row. determining the number of Z-trees (Z) to be planted, determining the positions of the Z-trees (Z) in a plurality of rows at predetermined distances from each other, determining the positions of the fuel wood trees (E), in their own rows between the rows of Z-trees, wherein additional fuel wood trees (E) are provided as protection trees (E2) at predetermined positions in the Z-tree rows and/or fuel wood trees (E) are also provided within a Z-tree row.
A component mounter for mounting an electronic component on a board , comprising: a mounting tool configured to receive the electronic component in a component supply position and release the electronic component so received in a predetermined position on the board ; an accommodation section accommodating mounting tools of multiple types; a head configured to detachably mount thereon a single mounting tool selected from the mounting tools of multiple types accommodated in the accommodation section ; a moving mechanism configured to move the head between the component supply position and the predetermined position on the board ; an abnormality detecting section configured to detect abnormality in relation to the mounting tool ; and a selection section configured to select the mounting tool to be mounted on the head , and select a mounting tool when the abnormality is detected by the abnormality detecting section , wherein the component mounter further comprises an imaging device (22;28;34) for capturing an image of the circuit board after the electronic component is mounted thereon, characterized in that the abnormality includes a positional deviation of the electronic component on the circuit board , the positional deviation being detected from a captured image, and the mounting tool selected by the selection section is of a second type which can hold an electronic component larger than an electronic component the mounting tool of a first type which is mounted on the head can hold. a mounting tool configured to receive the electronic component in a component supply position and release the electronic component so received in a predetermined position on the board ; an accommodation section accommodating mounting tools of multiple types; a head configured to detachably mount thereon a single mounting tool selected from the mounting tools of multiple types accommodated in the accommodation section ; a moving mechanism configured to move the head between the component supply position and the predetermined position on the board ; an abnormality detecting section configured to detect abnormality in relation to the mounting tool ; and a selection section configured to select the mounting tool to be mounted on the head , and select a mounting tool when the abnormality is detected by the abnormality detecting section , wherein the component mounter further comprises an imaging device (22;28;34) for capturing an image of the circuit board after the electronic component is mounted thereon, characterized in that the abnormality includes a positional deviation of the electronic component on the circuit board , the positional deviation being detected from a captured image, and the mounting tool selected by the selection section is of a second type which can hold an electronic component larger than an electronic component the mounting tool of a first type which is mounted on the head can hold.
A control system for an internal combustion engine including a first exhaust catalyst that is a three-way catalyst disposed in an exhaust path of the internal combustion engine , a second exhaust catalyst that is a three-way catalyst disposed in the exhaust path on a downstream side of the first exhaust catalyst , and a motor configured to drive the internal combustion engine , the control system comprising an electronic control unit configured to when operation of the internal combustion engine is stopped, stop fuel injection in the internal combustion engine and then, execute motoring in which the internal combustion engine is rotationally driven using drive power of the motor, and characterised by executing the motoring such that an oxygen occlusion amount (OSAf) of the first exhaust catalyst becomes a target oxygen occulsion amount (OSAtgt) which is smaller than an upper limit oxygen occlusion amount (OSAmax) of the first exhaust catalyst .
Method for detecting particles in an exhaust gas stream of a vehicle, which exhaust gas stream is guided along a duct , using a particle sensor that comprises at least two electrodes that are arranged in the duct, wherein the method comprises the following steps: sequentially apply a first voltage and a second voltage, differing from the first voltage, to the at least two electrodes in order to produce a first electric field and a second electric field between the at least two electrodes; determine a first capacitance value that corresponds to the first electrical field and a second capacitance value that corresponds to the second electrical field of a capacitor that is embodied by the at least two electrodes; and ascertain from the first capacitance value and the second capacitance value information regarding the particles contained in the exhaust gas stream, comprising a step of comparing the first capacitance value with a first reference value and of comparing the second capacitance value with a second reference value in order to ascertain information regarding the particles contained in the exhaust gas stream, wherein in the step of comparing the first capacitance value with a first reference value information regarding a quantity of the particles contained in the exhaust gas stream is ascertained, wherein in the step of comparing the second capacitance value with the second reference value information regarding a size of the particles contained in the exhaust gas stream is ascertained, wherein in the case of which in the step of sequentially applying a voltage a direct current voltage is applied as a first voltage and an alternating current voltage is applied as a second voltage. sequentially apply a first voltage and a second voltage, differing from the first voltage, to the at least two electrodes in order to produce a first electric field and a second electric field between the at least two electrodes; determine a first capacitance value that corresponds to the first electrical field and a second capacitance value that corresponds to the second electrical field of a capacitor that is embodied by the at least two electrodes; and ascertain from the first capacitance value and the second capacitance value information regarding the particles contained in the exhaust gas stream, comprising a step of comparing the first capacitance value with a first reference value and of comparing the second capacitance value with a second reference value in order to ascertain information regarding the particles contained in the exhaust gas stream, wherein in the step of comparing the first capacitance value with a first reference value information regarding a quantity of the particles contained in the exhaust gas stream is ascertained, wherein in the step of comparing the second capacitance value with the second reference value information regarding a size of the particles contained in the exhaust gas stream is ascertained, wherein in the case of which in the step of sequentially applying a voltage a direct current voltage is applied as a first voltage and an alternating current voltage is applied as a second voltage.
Method for the detection of chromosome or DNA regions and for the detection of chromosome aberrations, in which directly or indirectly labeled nucleic acid fragments (DNA probes) are used for a chromogenic or fluorescence in-situ hybridization (CISH; FISH) of chromosomes with a reduced background, wherein the DNA probes are produced with a method comprising the steps: a) Selecting a number of nucleic acid sequences which occur once in a longer genome section by comparing sequences; b) Synthesizing sense and antisense primers for a polymerase chain reaction on the number of the selected nucleic acid sequences, wherein each primer has a sequence which is complementary to the strand or complementary strand of the selected nucleic acid sequence, and also has at least one uniform oligonucleotide sequence which does not hybridize with a sequence of the genome under stringent conditions; c) Performing polymerase chain reactions with the number of sense and antisense primers on the genome section and obtaining synthesized nucleic acid fragments which contain known genome sequences which occur once; d) Performing a second polymerase chain reaction on the synthesized nucleic acid fragments of step c) using a number of primers which hybridize with the uniform oligonucleotide sequence of the primers and obtaining amplified genomic nucleic acid fragments which occur once and which can be used for the aforementioned chromogenic or fluorescence in-situ hybridization of chromosomes with a reduced background. a) Selecting a number of nucleic acid sequences which occur once in a longer genome section by comparing sequences; b) Synthesizing sense and antisense primers for a polymerase chain reaction on the number of the selected nucleic acid sequences, wherein each primer has a sequence which is complementary to the strand or complementary strand of the selected nucleic acid sequence, and also has at least one uniform oligonucleotide sequence which does not hybridize with a sequence of the genome under stringent conditions; c) Performing polymerase chain reactions with the number of sense and antisense primers on the genome section and obtaining synthesized nucleic acid fragments which contain known genome sequences which occur once; d) Performing a second polymerase chain reaction on the synthesized nucleic acid fragments of step c) using a number of primers which hybridize with the uniform oligonucleotide sequence of the primers and obtaining amplified genomic nucleic acid fragments which occur once and which can be used for the aforementioned chromogenic or fluorescence in-situ hybridization of chromosomes with a reduced background.
A 3D scanner for recording topographic characteristics of a surface of at least part of a body orifice, where the 3D scanner comprises: - a main body comprising a mounting portion ; - a tip which can be mounted onto and un-mounted from said mounting portion , where said tip is configured for being brought into proximity of said body orifice surface when recording said topographic characteristics such that at least one optical element of the tip is at least partly exposed to the environment in the body orifice during said recording; and - a heater system for heating said optical element , said heater system comprising a source of electromagnetic energy and a receptive element configured for receiving the electromagnetic energy and converting it into heat, where the generated heat is provided indirectly through a heat conducting element to said optical element , where the heat conducting element is arranged at the tip such that it can transfer heat generated by the receptive element to said optical element , where the heat conducting element comprises a multi-layer sheet comprising one or more heat conducting layers and a protective layer arranged such that it faces the mounting portion and provides mechanical protection to the heat conductive layers , the heat conductive layers having a relatively higher thermal conductivity than said protective layer , the one or more heat conductive layers being arranged in a recess defined in the protective layer. - a main body comprising a mounting portion ; - a tip which can be mounted onto and un-mounted from said mounting portion , where said tip is configured for being brought into proximity of said body orifice surface when recording said topographic characteristics such that at least one optical element of the tip is at least partly exposed to the environment in the body orifice during said recording; and - a heater system for heating said optical element , said heater system comprising a source of electromagnetic energy and a receptive element configured for receiving the electromagnetic energy and converting it into heat, where the generated heat is provided indirectly through a heat conducting element to said optical element , where the heat conducting element is arranged at the tip such that it can transfer heat generated by the receptive element to said optical element , where the heat conducting element comprises a multi-layer sheet comprising one or more heat conducting layers and a protective layer arranged such that it faces the mounting portion and provides mechanical protection to the heat conductive layers , the heat conductive layers having a relatively higher thermal conductivity than said protective layer , the one or more heat conductive layers being arranged in a recess defined in the protective layer.
A processor-implemented method comprising: receiving an audio signal; determining that the audio signal includes a voice command to communicate with a contact using a first communication type, the first communication type having a plurality of fields, wherein the voice command includes content associated with the plurality of fields; determining that communication with the contact using the first communication type is unavailable; and after determining that communication with the contact using the first communication type is unavailable, facilitating communication with the contact using a second communication type, the second communication type having a single field, the method further comprising: combining the content associated with the plurality of fields; and including the combined content in the single field of the second communication type. receiving an audio signal; determining that the audio signal includes a voice command to communicate with a contact using a first communication type, the first communication type having a plurality of fields, wherein the voice command includes content associated with the plurality of fields; determining that communication with the contact using the first communication type is unavailable; and after determining that communication with the contact using the first communication type is unavailable, facilitating communication with the contact using a second communication type, the second communication type having a single field, the method further comprising: combining the content associated with the plurality of fields; and including the combined content in the single field of the second communication type. combining the content associated with the plurality of fields; and including the combined content in the single field of the second communication type.