mhurhangee/ep-ind-claims huggingface dataset:
A blanket application arrangement on a vehicle, namely a moving liquid distribution device, automotive or towed agricultural sprayer, crop protection device or industrial spraying machine, having a plurality of application arrangements arranged next to one another on a linkage provided perpendicularly to the working direction, wherein the application arrangements are controllable and can apply liquids and/or applicable solids, seeds, fertilisers and/or salts, wherein - the linkage is divided into at least three linkage portions, namely a main linkage frame and a respective side linkage frame (22, 23) arranged at the sides of the main linkage frame, - the linkage is connected to the vehicle via a pendulum device, wherein - the pendulum device has a pendulum in a pendulum receptacle for the pendulum arranged in the vertical direction with a bearing of the pendulum in a first pivot point, - the pendulum is mounted in a first pivot point and can be adjusted, deflected and/or swung out perpendicularly to the working direction, and - the pendulum has a second pivot point with a bearing and receptacle for the main linkage frame, wherein the main linkage frame is mounted in the second pivot point and can be adjusted, deflected and/or swung out perpendicularly to the working direction, characterised in that two hydraulic cylinders are arranged between the pendulum receptacle/pendulum device and the pendulum, wherein these hydraulic cylinders can pivot the pendulum together with the main linkage frame connected via the receptacle about the first pivot point and in that a pneumatic cylinder is arranged with its first side on the pendulum and its second side on the main linkage frame, wherein the pneumatic cylinder enables, prevents, allows and/or hinders a pivotal movement of the main linkage frame relative to the pendulum about the second pivot point. - the linkage is divided into at least three linkage portions, namely a main linkage frame and a respective side linkage frame (22, 23) arranged at the sides of the main linkage frame, - the linkage is connected to the vehicle via a pendulum device, wherein - the pendulum device has a pendulum in a pendulum receptacle for the pendulum arranged in the vertical direction with a bearing of the pendulum in a first pivot point, - the pendulum is mounted in a first pivot point and can be adjusted, deflected and/or swung out perpendicularly to the working direction, and - the pendulum has a second pivot point with a bearing and receptacle for the main linkage frame, wherein the main linkage frame is mounted in the second pivot point and can be adjusted, deflected and/or swung out perpendicularly to the working direction,
A medical patch for administering to the skin the antiphlogistic agent etofenamate, which is liquid at room temperature, wherein said patch has a structure consisting of the top layer (a), the backing layer (c), the peelable protective layer (d) and optionally an intermediate layer (b), characterized in that: - the top layer (a) consists of an inert material; - the backing layer (c) consists of a self-adhesive polysiloxane as the backing material, which was obtained by condensing a dimethylpolysiloxane containing silanol groups with a silicate resin that is soluble in organic solvents and then reacting the remaining silanol groups with a reactive trimethylsilyl compound; and - this self-adhesive polysiloxane optionally contains additives that are known per se for modifying the adhesive properties and optionally additives for reducing the viscosity of the self-adhesive polysiloxane, and into which the antiphlogistic agent is incorporated in the form of a dispersion, optionally with an agent that promotes permeation through the skin; - the adhesive force of the backing layer (c) is in the range from 0.8 N/25 mm to 1.4 N/25 mm; - the backing layer (c) contains the agent etofenamate in a concentration in the range from 1.0% to 25.0% by weight, based on the total weight of the backing layer (c); - the backing layer (c) contains the agent in dispersed form in an average droplet size in the range from 0.1 μm to 500 μm; - the backing layer (c) adheres directly to the top layer (a) or is optionally attached to it by the intermediate layer (b); - the peelable protective layer (d) consists of an inert material, adheres to the backing layer (c) and can be easily peeled off of it. - the top layer (a) consists of an inert material; - the backing layer (c) consists of a self-adhesive polysiloxane as the backing material, which was obtained by condensing a dimethylpolysiloxane containing silanol groups with a silicate resin that is soluble in organic solvents and then reacting the remaining silanol groups with a reactive trimethylsilyl compound; and - this self-adhesive polysiloxane optionally contains additives that are known per se for modifying the adhesive properties and optionally additives for reducing the viscosity of the self-adhesive polysiloxane, and into which the antiphlogistic agent is incorporated in the form of a dispersion, optionally with an agent that promotes permeation through the skin; - the adhesive force of the backing layer (c) is in the range from 0.8 N/25 mm to 1.4 N/25 mm; - the backing layer (c) contains the agent etofenamate in a concentration in the range from 1.0% to 25.0% by weight, based on the total weight of the backing layer (c); - the backing layer (c) contains the agent in dispersed form in an average droplet size in the range from 0.1 μm to 500 μm; - the backing layer (c) adheres directly to the top layer (a) or is optionally attached to it by the intermediate layer (b); - the peelable protective layer (d) consists of an inert material, adheres to the backing layer (c) and can be easily peeled off of it.
An ion source for a mass spectrometer comprising: an ultrasonic transducer arranged and adapted to focus ultrasonic energy onto a surface of a sample fluid contained within a sample well without said ultrasonic transducer directly contacting said sample fluid so as to cause one or more droplets to be ejected from said sample fluid in a substantially controlled manner, wherein said one or more droplets comprise a majority of un-ionised droplets; and an ionisation device arranged and adapted to ionise said one or more droplets ejected from said sample fluid by said ultrasonic transducer. an ultrasonic transducer arranged and adapted to focus ultrasonic energy onto a surface of a sample fluid contained within a sample well without said ultrasonic transducer directly contacting said sample fluid so as to cause one or more droplets to be ejected from said sample fluid in a substantially controlled manner, wherein said one or more droplets comprise a majority of un-ionised droplets; and an ionisation device arranged and adapted to ionise said one or more droplets ejected from said sample fluid by said ultrasonic transducer.
Radio-frequency-identification-communication-system for configuration and parameterization, wherein the radio-frequency-identification-communication-system comprises a radio-frequency-identification-device with a device firmware, a transponder and a first antenna, which is connected to the radio-frequency-identification-device for transmitting and receiving data; wherein the transponder comprises a second antenna for transmitting and receiving data and a storage for storing configuration data for the radio-frequency-identification-device, and wherein the stored configuration data are available for the radio-frequency-identification-device, in a wireless manner via both antennas (3,5) characterized in that the device firmware of the radio-frequency-identification-device is suitable for testing the functionality of the first antenna by performing a reading-and/or writing-test which is independent from a configuration application, wherein the testing steps relating to the reading and/or writing tests are stored on the transponder after each reading and/or writing test.
A bicomponent fiber, comprising i) a first thermoplastic polyurethane component; and ii) a second thermoplastic polyurethane component, which may be the same as or different from component i), wherein at least one of components i) and ii) is crosslinked by a crosslinker to form at least one polymer of polymer i) and polymer ii), of which polymer i) has a melting point higher than that of polymer ii) by at least 10°C, the fiber size is between 8 and 300 denier, more preferably between 10 and 100 denier, and the crosslinker is a NCO-terminated prepolymers with a functionality of 1.5 to 3. i) a first thermoplastic polyurethane component; and ii) a second thermoplastic polyurethane component, which may be the same as or different from component i), wherein at least one of components i) and ii) is crosslinked by a crosslinker to form at least one polymer of polymer i) and polymer ii), of which polymer i) has a melting point higher than that of polymer ii) by at least 10°C, the fiber size is between 8 and 300 denier, more preferably between 10 and 100 denier, and the crosslinker is a NCO-terminated prepolymers with a functionality of 1.5 to 3.
A method of operating an HVAC system, comprising a thermal energy source and a thermal energy transfer device, using a flow regulating device arranged to regulate a flow rate (Φ) of a fluid between the thermal energy source and the thermal energy transfer device, the method comprising: - determining a supply temperature (Ts) of the fluid; - determining a return temperature (Tr) of the fluid; - determining the flow rate (Φ) of the fluid; and - regulating the flow rate (Φ) of the fluid such as to maintain a target temperature difference (dTt) between the supply temperature (Ts) and the return temperature (Tr), while ensuring that: - the return temperature (Tr) is above a minimum return temperature threshold (Trmin); and - the flow rate (Φ) is above an operational flow rate threshold (Φmin) of the thermal energy transfer device. - determining a supply temperature (Ts) of the fluid; - determining a return temperature (Tr) of the fluid; - determining the flow rate (Φ) of the fluid; and - regulating the flow rate (Φ) of the fluid such as to maintain a target temperature difference (dTt) between the supply temperature (Ts) and the return temperature (Tr), while ensuring that: - the return temperature (Tr) is above a minimum return temperature threshold (Trmin); and - the flow rate (Φ) is above an operational flow rate threshold (Φmin) of the thermal energy transfer device. - the return temperature (Tr) is above a minimum return temperature threshold (Trmin); and - the flow rate (Φ) is above an operational flow rate threshold (Φmin) of the thermal energy transfer device.
A seal element comprising an elastomeric composite, said composite comprising an elastomeric polymer blended with a phase change material, wherein the PCM have a heat of fusion larger than 100 kJ/kg, a phase transition point within the temperature range of 233-288 K and is able to provide heat to the elastomeric polymer upon cooling of the seal element to the phase transition point of the PCM, and wherein at least one surface of the seal element is PCM-free or the PCM only occupies an internal volume of the seal element.
A feedthrough comprising: a ceramic body (102, 104, 105, 300, 404, 406, 508) mechanically joined about a perimeter to a hermetic case, the ceramic body comprising: a ceramic matrix (305, 605); and a plurality of electrical conductors (108, 109, 200, 403, 512, 635 passing through the ceramic body, characterized by a ductile phase distributed through at least a portion of the ceramic matrix, the ductile phase being configured to increase the resistance of the ceramic matrix to crack propagation;, wherein the ductile phase comprises metallic particles (310, 325, 330, 335, 645, 650). a ceramic body (102, 104, 105, 300, 404, 406, 508) mechanically joined about a perimeter to a hermetic case, the ceramic body comprising: a ceramic matrix (305, 605); and a plurality of electrical conductors (108, 109, 200, 403, 512, 635 passing through the ceramic body, characterized by a ductile phase distributed through at least a portion of the ceramic matrix, the ductile phase being configured to increase the resistance of the ceramic matrix to crack propagation;, a ceramic matrix (305, 605); and a plurality of electrical conductors (108, 109, 200, 403, 512, 635 passing through the ceramic body, characterized by a ductile phase distributed through at least a portion of the ceramic matrix, the ductile phase being configured to increase the resistance of the ceramic matrix to crack propagation;,
Measuring device for measuring parameters in melts, in particular for measuring the temperature, in particular in metal or cryolite melts with a melting point above 500°C, with an optical fibre for receiving radiation from the melt and with a cable drum that comprises an external circumference for accommodation of the optical fibre and an internal space that is surrounded by the external circumference, characterised in that an optical fibre connection, a distributor, and a mode filter for the optical fibre are arranged in the internal space, whereby one end of the optical fibre is guided through an opening in the external jacket surface of the cable drum into the internal space of the cable drum and, there, is guided into the distributor by means of guide rails on the internal circumferential surface of the cable drum, and whereby the optical fibre is guided through the mode filter into the optical fibre connection via various guide elements that are arranged in the distributor.
A pressure-sensitive adhesive tape for preventing adhesion of an aquatic organism, comprising an antifouling layer, a base material layer, and a pressure-sensitive adhesive layer in the stated order, wherein the antifouling layer comprises a silicone resin, wherein the antifouling layer comprises an antifouling agent, wherein a content of the antifouling agent with respect to the silicone resin is 2 wt% or more, and wherein the antifouling agent comprises at least one kind selected from a dimethyl silicone oil and a phenyl methyl silicone oil represented by the general formula wherein n represents an integer of from 0 to 150, in the dimethyl silicone oil all of R 1 's and R 2 's each represent a methyl group, and the phenyl methyl silicone oil is obtained by substituting part of the methyl groups of any such dimethyl silicone oil with phenyl groups.
Conveyor system for conveying loaded or unloaded load carriers including a plurality of conveyor devices each having at least two conveyor units, which cooperate with each other and travel in a coordinated side-by-side manner, each conveyor unit having: a) a chassis which is maneuverable on floor rollers; b) a support element carried along by the chassis, wherein the support element can be raised or lowered relative to the chassis such that the conveyor unit can travel completely under a load carrier in an empty configuration and can receive and convey a load carrier with the support element in a conveying configuration; c) a drive system by means of which at least one of the floor rollers and the support element can be driven, the drive system comprising a travel drive for the chassis and a lifting/lowering device for the support element; characterized by d) a controller configured to control the drive system such that the support element performs a movement effected by a superposition of a horizontal movement component of the chassis and a vertical movement component of the support element. a) a chassis which is maneuverable on floor rollers; b) a support element carried along by the chassis, wherein the support element can be raised or lowered relative to the chassis such that the conveyor unit can travel completely under a load carrier in an empty configuration and can receive and convey a load carrier with the support element in a conveying configuration; c) a drive system by means of which at least one of the floor rollers and the support element can be driven, the drive system comprising a travel drive for the chassis and a lifting/lowering device for the support element; characterized by d) a controller configured to control the drive system such that the support element performs a movement effected by a superposition of a horizontal movement component of the chassis and a vertical movement component of the support element.
Monobloc part forming a front block for motor vehicle comprising a structural portion forming an energy absorption system, and a moulded semi-structural portion forming at least an aerodynamic system, the semi-structural portion being overmoulded on the structural portion.
A computer implemented method comprising use of a computer database to identify one or more effective therapeutic interventions for a subject having cancer, wherein the computer database includes, for each of a plurality of subjects having cancer: (i) tumor genomic testing data, including somatic alterations, collected at two or more time intervals per subject via serial biopsy of cell-free DNA; (ii) one or more therapeutic interventions administered to each of the subjects at one or more times; and (iii) efficacy of the therapeutic interventions. (i) tumor genomic testing data, including somatic alterations, collected at two or more time intervals per subject via serial biopsy of cell-free DNA; (ii) one or more therapeutic interventions administered to each of the subjects at one or more times; and (iii) efficacy of the therapeutic interventions.
Method of attaching a shrinkable label on a product (23, 23') wherein the shrinkable label comprises a multi-layered film comprising heat shrinkable material and photothermic material, the method comprising: - transporting the at least one product on a conveyor; - arranging the at least one product in an irradiation volume (37, 64, 88, 158), the irradiation volume being defined by a plurality of UV light emitters (36, 42, 52, 63, 92, 119, 156) arranged to emit UV-light in the direction of at least a shrinkable label arranged around the at least one product; - controlling the UV-light emitters (36, 42, 52, 63, 92, 119, 156) to irradiate the at least one shrinkable label arranged around the one or more products in the irradiation volume in order for the photothermic material to heat up causing the heat shrinkable material to shrink around the at least one product, wherein the UV light has a peak wavelength between 200 and 399 nm and at least 90% of the UV light is within a bandwidth of +/- 30 nm of the peak wavelength. - transporting the at least one product on a conveyor; - arranging the at least one product in an irradiation volume (37, 64, 88, 158), the irradiation volume being defined by a plurality of UV light emitters (36, 42, 52, 63, 92, 119, 156) arranged to emit UV-light in the direction of at least a shrinkable label arranged around the at least one product; - controlling the UV-light emitters (36, 42, 52, 63, 92, 119, 156) to irradiate the at least one shrinkable label arranged around the one or more products in the irradiation volume in order for the photothermic material to heat up causing the heat shrinkable material to shrink around the at least one product, wherein the UV light has a peak wavelength between 200 and 399 nm and at least 90% of the UV light is within a bandwidth of +/- 30 nm of the peak wavelength.
A method for controlling an overload by an access network entity in a communication system, the method comprising: receiving a general packet radio service tunneling protocol control, GTP-C, message including overload information from a packet data network gateway, PDN GW; setting a first timer and transmitting an authentication reject message to a user equipment, UE, if an authentication request message is received from the UE; and transmitting a session management reject message including a second timer to the UE, if a session management request message is received from the UE. receiving a general packet radio service tunneling protocol control, GTP-C, message including overload information from a packet data network gateway, PDN GW; setting a first timer and transmitting an authentication reject message to a user equipment, UE, if an authentication request message is received from the UE; and transmitting a session management reject message including a second timer to the UE, if a session management request message is received from the UE.
Injection valve for an internal combustion engine, having a fluid inlet line which is designed to define a flow of a fluid along a main flow direction, wherein the fluid inlet line has a catching section which is designed to conduct the fluid along a direction which is oriented at least partially oppositely to the main flow direction, wherein the fluid inlet line has a first bend, which is arranged so as to connect an inlet section of the fluid inlet line to the catching section, and wherein the fluid inlet line has a second bend, which is arranged so as to connect the catching section to an outlet section of the fluid inlet line, wherein the fluid inlet line is designed such that the catching section axially overlaps the inlet section and the outlet section of the fluid inlet line, wherein the fluid inlet line is designed such that floating particles carried by the fluid which is conducted through the fluid inlet line are deposited in the fluid inlet line in a depositing region of the first bend, characterized in that the fluid inlet line has a flow element which is arranged at a given position of the first bend, and wherein the flow element is designed to define a catching region for the floating particles such that, once they have entered the catching region, the floating particles are held back from the flow of the fluid by the flow element.
A binding method of a perfect-bound booklet comprising: a paper folding step of folding each leaf of sheets forming a body to obtain multiple signatures; a pressing step of pressing creased parts of the multiple signatures in a thickness direction of the multiple signatures; a paper jogging step of jogging a one-book bundle formed of a predetermined number of signatures forming a body, a front cover, and a back cover, or a multi-book bundle formed by stacking a plurality of one-book bundles on top of one another; a first application step of applying a first adhesive that remains flexible upon curing, in a layer in a middle area 5 to 10 millimeters width from both top and bottom end edges of a rear face of the one-book bundle or the multi-book bundle; and a second application step of applying a second adhesive in a layer on an entire rear face of the one-book or multi-book bundle including the parts where the first adhesive is not applied, after leaving the first adhesive layer for a predetermined drying time. a paper folding step of folding each leaf of sheets forming a body to obtain multiple signatures; a pressing step of pressing creased parts of the multiple signatures in a thickness direction of the multiple signatures; a paper jogging step of jogging a one-book bundle formed of a predetermined number of signatures forming a body, a front cover, and a back cover, or a multi-book bundle formed by stacking a plurality of one-book bundles on top of one another; a first application step of applying a first adhesive that remains flexible upon curing, in a layer in a middle area 5 to 10 millimeters width from both top and bottom end edges of a rear face of the one-book bundle or the multi-book bundle; and a second application step of applying a second adhesive in a layer on an entire rear face of the one-book or multi-book bundle including the parts where the first adhesive is not applied, after leaving the first adhesive layer for a predetermined drying time.