mhurhangee/ep-ind-claims huggingface dataset:
A particle beam therapy apparatus comprising: a particle beam irradiator configured to output a particle beam; a supporting structure configured to be movable and support the particle beam irradiator; a plurality of movable plates disposed on a displacement trajectory of the particle beam irradiator, forming a substantially horizontal enveloping surface below a table for placing an irradiation object, comprising in at least one of the plurality of movable plates: a first floor member; and a second floor member, wherein the first floor member is made of a material that is higher in X-ray transmittance than the second floor member; an X-ray generator provided in a non-collision area where the X-ray generator does not collide with any of the particle beam irradiator, the supporting structure, and the plurality of movable plates; and an X-ray detector installed at a position where the X-ray detector faces the X-ray generator and can detect X-rays transmitted through the first floor member, wherein the second floor member is punched and the first floor member is removably fit into the punched portion, thereby coupling the first floor member to the second floor member, and the size of the punched portion is set such that the X-ray generator can be taken in and out through the punched portion when the first floor member is removed. a particle beam irradiator configured to output a particle beam; a supporting structure configured to be movable and support the particle beam irradiator; a plurality of movable plates disposed on a displacement trajectory of the particle beam irradiator, forming a substantially horizontal enveloping surface below a table for placing an irradiation object, comprising in at least one of the plurality of movable plates: a first floor member; and a second floor member, wherein the first floor member is made of a material that is higher in X-ray transmittance than the second floor member; a first floor member; and a second floor member, wherein the first floor member is made of a material that is higher in X-ray transmittance than the second floor member; an X-ray generator provided in a non-collision area where the X-ray generator does not collide with any of the particle beam irradiator, the supporting structure, and the plurality of movable plates; and an X-ray detector installed at a position where the X-ray detector faces the X-ray generator and can detect X-rays transmitted through the first floor member, wherein the second floor member is punched and the first floor member is removably fit into the punched portion, thereby coupling the first floor member to the second floor member, and the size of the punched portion is set such that the X-ray generator can be taken in and out through the punched portion when the first floor member is removed.
A method of selecting drive modes (vF, eF) of a hybrid vehicle, comprising the acts of: determining an energy efficiency of purely electric drive mode (eF); determining an energy efficiency of a hybrid drive mode (vF); computing an energy related advantage of the purely electric drive from the determined energy efficiencies; computing a required minimum energy related advantage based on operational parameters (206, 208, 210) of the hybrid vehicle; comparing the energy related advantage to the required minimum energy related advantage; and when results of the comparison are within selected limits, selecting purely electric drive of the hybrid vehicle. determining an energy efficiency of purely electric drive mode (eF); determining an energy efficiency of a hybrid drive mode (vF); computing an energy related advantage of the purely electric drive from the determined energy efficiencies; computing a required minimum energy related advantage based on operational parameters (206, 208, 210) of the hybrid vehicle; comparing the energy related advantage to the required minimum energy related advantage; and when results of the comparison are within selected limits, selecting purely electric drive of the hybrid vehicle.
A polypeptide comprising a first fragment and a second fragment, wherein (i) the first fragment is a C. difficile toxin A repeating domain fragment; (ii) the second fragment is a C. difficile toxin B repeating domain fragment; (iii) the first fragment has a first proximal end; (iv) the second fragment has a second proximal end; and wherein the first proximal end is within a short repeat and the second proximal end is within a short repeat; and wherein the first fragment and the second fragment are adjacent to one another and wherein the polypeptide elicits antibodies that neutralize toxin A and toxin B. (i) the first fragment is a C. difficile toxin A repeating domain fragment; (ii) the second fragment is a C. difficile toxin B repeating domain fragment; (iii) the first fragment has a first proximal end; (iv) the second fragment has a second proximal end; and
An end node networked machine (200, 250) to integrate firewall and intrusion detection to monitor inbound network communications and network communications generated by one or more applications invoked on the networked machine, the networked machine comprising: an application rule enforcer component to: receive a network service request for access to network services from an invoked application; and, check whether the network service request violates a network policy, wherein network policies include permissive and restrictive rules to designate the received network service request as authorized or unauthorized, respectively; a network traffic enforcer component to block inbound network communications that fail to correspond to an authorized network service request; and wherein the networked machine further comprises: an intrusion detection component to examine, subsequent to a block of the inbound network communications, the blocked inbound network communications to detect an intrusion. an application rule enforcer component to: receive a network service request for access to network services from an invoked application; and, check whether the network service request violates a network policy, wherein network policies include permissive and restrictive rules to designate the received network service request as authorized or unauthorized, respectively; receive a network service request for access to network services from an invoked application; and, check whether the network service request violates a network policy, wherein network policies include permissive and restrictive rules to designate the received network service request as authorized or unauthorized, respectively; a network traffic enforcer component to block inbound network communications that fail to correspond to an authorized network service request; and wherein the networked machine further comprises: an intrusion detection component to examine, subsequent to a block of the inbound network communications, the blocked inbound network communications to detect an intrusion. an intrusion detection component to examine, subsequent to a block of the inbound network communications, the blocked inbound network communications to detect an intrusion.
A method of determining in a sample the presence or absence of one or more analyte members of a group of two or more analytes, the method comprising: (a) contacting the sample with a transmembrane pore and a panel of two or more probes, wherein the probes in the panel are not coupled to the pore, wherein each probe recognises one or more of the analyte members and comprises (i) an oligonucleotide aptamer that binds to one or more of the analyte members and (ii) a tail which comprises a single stranded polynucleotide, is capable of entering the pore and has different effects on the current flowing through the pore depending on whether or not the aptamer in the probe is bound to one of the analyte members, wherein each probe affects the current flowing through the pore in a distinctive manner, and wherein each analyte member of the group of two or more analytes is recognised by at least one probe in the panel; and (b) measuring the current flowing through the pore to determine which probes in the panel, if any, have bound to an analyte member and thereby determining the presence or absence of one or more analyte members in the sample. (a) contacting the sample with a transmembrane pore and a panel of two or more probes, wherein the probes in the panel are not coupled to the pore, wherein each probe recognises one or more of the analyte members and comprises (i) an oligonucleotide aptamer that binds to one or more of the analyte members and (ii) a tail which comprises a single stranded polynucleotide, is capable of entering the pore and has different effects on the current flowing through the pore depending on whether or not the aptamer in the probe is bound to one of the analyte members, wherein each probe affects the current flowing through the pore in a distinctive manner, and wherein each analyte member of the group of two or more analytes is recognised by at least one probe in the panel; and (b) measuring the current flowing through the pore to determine which probes in the panel, if any, have bound to an analyte member and thereby determining the presence or absence of one or more analyte members in the sample.
Method for operating a cooling section which is arranged within a rolling train or upstream or downstream of the rolling train and by means of which a hot-rolled product made of metal is cooled, - wherein a number of application devices of the cooling section are supplied with a respective actual flow of a liquid, water-based coolant via a respective supply line and a respective pump, - wherein the respective actual flow of the coolant is applied to the hot-rolled product by means of the respective application device, - wherein the hot-rolled product is transported in a horizontal transport direction (x) within the cooling section during the application of the coolant, characterized in that a controller of the cooling section dynamically determines a respective target control state (S*) for the respective pump on the basis of a respective target flow (F*) of the coolant to be applied to the hot-rolled product by means of the respective application device and controls the respective pump in a corresponding manner such that the respective actual flow delivered by the respective pump is approximated as far as possible to the respective target flow (F*) at any time. - wherein a number of application devices of the cooling section are supplied with a respective actual flow of a liquid, water-based coolant via a respective supply line and a respective pump, - wherein the respective actual flow of the coolant is applied to the hot-rolled product by means of the respective application device, - wherein the hot-rolled product is transported in a horizontal transport direction (x) within the cooling section during the application of the coolant,
A partition wall of a shower cubicle or a shower or bathtub partition having a wall connector with a stationary wall element and with a running rail being arranged at an upper edge region of the wall element, wherein at least one door leaf is guided in the running rail with at least one running gear, wherein the running rail is adapted to be fastened at a first end in longitudinal direction by means of the wall connector to a wall, characterized in that the running rail protrudes freely in longitudinal direction distally from the first end over the wall element.
A feedthrough system comprising a) a feedthrough comprising i) an insulating body, ii) an electrically conductive pathway, wherein an end of the electrically conductive pathway is level with a surface of the insulating body, iii) optionally an electrically conductive pad, wherein the electrically conductive pad is attached to the level end of the electrically conductive pathway, b) an electrical contact element for connecting a wire to the feedthrough, wherein the electrical contact element comprises a metal, and wherein the electrical contact element is attached to the level end of the electrically conductive pathway by a joint microstructure, or wherein, when the feedthrough comprises the electrically conductive pad, the electrical contact element is attached to the electrically conductive pad by a joint microstructure. a) a feedthrough comprising i) an insulating body, ii) an electrically conductive pathway, wherein an end of the electrically conductive pathway is level with a surface of the insulating body, iii) optionally an electrically conductive pad, wherein the electrically conductive pad is attached to the level end of the electrically conductive pathway, i) an insulating body, ii) an electrically conductive pathway, wherein an end of the electrically conductive pathway is level with a surface of the insulating body, iii) optionally an electrically conductive pad, wherein the electrically conductive pad is attached to the level end of the electrically conductive pathway, b) an electrical contact element for connecting a wire to the feedthrough, wherein the electrical contact element comprises a metal, and wherein the electrical contact element is attached to the level end of the electrically conductive pathway by a joint microstructure, or
Joint for a prosthesis, with a knee head, two connection plates, a fork, a first axial pin, a second axial pin, a third axial pin, a fourth axial pin, and a seat for connection to the lower leg, wherein the knee head has a first axial bore and a second axial bore, wherein the first axial pin passes through the first axial bore and the upper ends of the two connection plates, while the second axial pin passes through the second axial bore and the fork, wherein the two branches of the fork are inserted into the seat and are connected to the seat via the third axial pin, and wherein the seat is connected at the bottom to the lower end of the two connection plates via the fourth axial pin, wherein, in the extended state of the prosthesis joint, the imaginary connection lines connecting the first axial pin to the second axial pin, the first axial pin to the fourth axial pin and the second axial pin to the third axial pin, span an inverted triangle, and wherein the point of attack lies at the vertex of the inverted triangle, wherein the vertex lies below the fourth axial pin.
An isocyanurate composition consisting essentially of an isocyanurate derivative of 1,3-xylylenediisocyanate, and having a viscosity at 100°C of 600 mPa•s or more and 20000 mPa•s or less.
Catalyst comprising two layers on an inert catalyst support, wherein • a layer A contains at least one platinum-group metal, and a cerium/zirconium/rare-earth metal mixed oxide, and • a layer B applied to layer A contains at least one platinum-group metal, and a cerium/zirconium/rare-earth metal mixed oxide, characterized in that the proportion of rare-earth metal in the cerium/zirconium/rare-earth metal mixed oxide of layer A is smaller than the proportion of rare-earth metal in the cerium/zirconium/rare-earth metal mixed oxide of layer B, in each case calculated in wt.% and based on the cerium/zirconium/rare-earth metal mixed oxide, wherein, as the platinum-group metal, layer A contains palladium and layer B contains rhodium or palladium and rhodium, and wherein the rare-earth metal oxide in the cerium/zirconium/rare-earth metal mixed oxides is lanthanum oxide, yttrium oxide, praseodymium oxide, neodymium oxide, samarium oxide, or mixtures of one or more of these metal oxides. • a layer A contains at least one platinum-group metal, and a cerium/zirconium/rare-earth metal mixed oxide, and • a layer B applied to layer A contains at least one platinum-group metal, and a cerium/zirconium/rare-earth metal mixed oxide,
Method for producing an insulating glass unit having at least two glass panes (4, 4a) which are separated from one another by a spacer frame, wherein still non-interconnected frame legs of the space frame of the insulating glass unit to be produced are positioned on a first glass pane of the insulating glass unit and, during positioning and/or after positioning on the first glass pane, are connected to one another without the use of corner connectors to form the spacer frame.
A curable composition comprising: a) a polybenzoxazine, b) a polyamine c) an ortho -dihydroxyaryl component comprising an oligomer or polymer having two or more ortho -dihydroxyaryl groups, and d) an optional acid catalyst. a) a polybenzoxazine, b) a polyamine c) an ortho -dihydroxyaryl component comprising an oligomer or polymer having two or more ortho -dihydroxyaryl groups, and d) an optional acid catalyst.
An electromechanical transducer comprising: a plurality of elements, each element including at least one cell that includes a first electrode, a second electrode opposed to the first electrode with a gap sandwiched therebetween, and a vibrating membrane on which the first electrode or the second electrode is formed, wherein the vibrating membrane is interposed between the first electrode and the second electrode, the first electrodes and the second electrodes being electrically separated for every element; and a direct-current voltage applying unit configured to be provided for each element and to separately apply a direct-current voltage to the first electrodes in each element, characterized in that the direct-current voltage applying unit is configured to apply a direct-current voltage for each of the elements so as to reduce a variation of an electrode distance between the first electrode and the second electrode of each of the elements detected according to a current output from the second electrodes. a plurality of elements, each element including at least one cell that includes a first electrode, a second electrode opposed to the first electrode with a gap sandwiched therebetween, and a vibrating membrane on which the first electrode or the second electrode is formed, wherein the vibrating membrane is interposed between the first electrode and the second electrode, the first electrodes and the second electrodes being electrically separated for every element; and a first electrode, a second electrode opposed to the first electrode with a gap sandwiched therebetween, and a vibrating membrane on which the first electrode or the second electrode is formed, wherein the vibrating membrane is interposed between the first electrode and the second electrode, the first electrodes and the second electrodes being electrically separated for every element; and a direct-current voltage applying unit configured to be provided for each element and to separately apply a direct-current voltage to the first electrodes in each element, characterized in that the direct-current voltage applying unit is configured to apply a direct-current voltage for each of the elements so as to reduce a variation of an electrode distance between the first electrode and the second electrode of each of the elements detected according to a current output from the second electrodes.
A non-pneumatic tire (1, 10, 15, 50, 60, 70, 80, 90), comprising: an inner cylinder attachable to an axle shaft; an outer cylinder configured to surround the inner cylinder from the outside in a tire radial direction; a linking member configured to link the inner cylinder to the outer cylinder; and a tread member externally fitted onto the outer cylinder, wherein the outer cylinder includes an outer circumferential section positioned on a tire equatorial line, the outer circumferential section being an outer end portion of the outer cylinder in a tire radial direction, and formed in a straight linear form in which the outer circumferential section extends in the tire width direction when viewed in a vertical cross-sectional view, side sections that are outer end portions of the outer cylinder in the tire width direction, positioned on both sides in the tire width direction with respect to the outer circumferential section and further inwardly in the tire radial direction than the outer circumferential section and formed in a straight linear form in which the side sections extend in the tire radial direction when viewed in the vertical cross-sectional view, and shoulder sections configured to connect the outer circumferential section to the side sections, wherein the tread member covers the outer circumferential section, the side sections, and the shoulder sections, and is fitted onto the outer cylinder,, and the inner cylinder the linking members and the outer cylinder are integrally formed using a thermoplastic resin, characterized in that each shoulder section is chamfered. an inner cylinder attachable to an axle shaft; an outer cylinder configured to surround the inner cylinder from the outside in a tire radial direction; a linking member configured to link the inner cylinder to the outer cylinder; and a tread member externally fitted onto the outer cylinder, wherein the outer cylinder includes an outer circumferential section positioned on a tire equatorial line, the outer circumferential section being an outer end portion of the outer cylinder in a tire radial direction, and formed in a straight linear form in which the outer circumferential section extends in the tire width direction when viewed in a vertical cross-sectional view, side sections that are outer end portions of the outer cylinder in the tire width direction, positioned on both sides in the tire width direction with respect to the outer circumferential section and further inwardly in the tire radial direction than the outer circumferential section and formed in a straight linear form in which the side sections extend in the tire radial direction when viewed in the vertical cross-sectional view, and shoulder sections configured to connect the outer circumferential section to the side sections, wherein the tread member covers the outer circumferential section, the side sections, and the shoulder sections, and is fitted onto the outer cylinder,, and the inner cylinder the linking members and the outer cylinder are integrally formed using a thermoplastic resin, characterized in that each shoulder section is chamfered.
Trailer coupling for motor vehicles comprising a coupling unit with a bearing part arranged so as to be fixed on the vehicle and a pivoting part mounted on the bearing part and having a ball neck and a coupling ball pivotable relative to the bearing part about an axis between a rest position and an operative position and a mechanical fixing device, the ball neck being fixable in the operative position in relation to the bearing part with said fixing device and said fixing device being acted upon by an elastic force storing device in the direction of its position fixing the ball neck in place, wherein for moving the ball neck out of the operative position the fixing device is actuatable by an electrically operable releasing drive (300, 410) and wherein the releasing drive (300, 410) acts on the fixing device in the sense of overriding the force action of the elastic force storing device of said fixing device, characterized in that during the actuation of the fixing device the ball neck is freely movable out of the operative position, that the releasing drive (300, 410) is drivable by an electric motor (302, 422) with a reducing gear (358, 424), that a control is provided for actuating the fixing device via the releasing drive (300, 410) following a one-time actuation of a starter switch in such a manner that the releasing drive (300, 410) acts on the fixing device during a period of time required for the ball neck to move out of the respective operative or rest position so that the fixing of the ball neck in the respective operative or rest position is overridden and, subsequently, the fixing device transfers into a standby fixing position so that the releasing drive (300, 410) already no longer acts on the fixing device before the respectively following rest or operative position is reached.