mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for an automatic milking system, the arrangement comprising: a three-dimensional camera configured to record image data (D img) representing an outer surface of a teat of a dairy animal in three dimensions; and a processing unit configured to receive the recorded image data (D img), and based thereon provide a geometric analysis of the teat, characterized in that the processing unit is configured to: calculate at least one size measure (W1, W2, L) of the teat based on the image data (D img), and the geometric analysis involving determining a size-related classification of the teat based on the at least one size measure (W1, W2, L), and determine a recommended teatcup liner (TCL R) for the dairy animal based on the size-related classification of the teat, and the arrangement further comprises a user interface configured to present output data (DO[TCL R]) reflecting the size-related classification of the teat. a three-dimensional camera configured to record image data (D img) representing an outer surface of a teat of a dairy animal in three dimensions; and a processing unit configured to receive the recorded image data (D img), and based thereon provide a geometric analysis of the teat, characterized in that the processing unit is configured to: calculate at least one size measure (W1, W2, L) of the teat based on the image data (D img), and the geometric analysis involving determining a size-related classification of the teat based on the at least one size measure (W1, W2, L), and determine a recommended teatcup liner (TCL R) for the dairy animal based on the size-related classification of the teat, and the arrangement further comprises a user interface configured to present output data (DO[TCL R]) reflecting the size-related classification of the teat. calculate at least one size measure (W1, W2, L) of the teat based on the image data (D img), and the geometric analysis involving determining a size-related classification of the teat based on the at least one size measure (W1, W2, L), and determine a recommended teatcup liner (TCL R) for the dairy animal based on the size-related classification of the teat, and the arrangement further comprises a user interface configured to present output data (DO[TCL R]) reflecting the size-related classification of the teat.
System for preparing a quantity of beverage suitable for consumption, including: a first exchangeable capsule having a first body with a first flange-like rim and a first exit face attached to the first flange-like rim, a second exchangeable capsule having a second body with a second flange-like rim and a second exit face attached to the second flange-like rim, wherein the second flange-like rim has a larger diameter than the first flange-like rim, and an apparatus for preparing a quantity of beverage suitable for consumption, said apparatus including a first brew chamber part having a cavity for selectively holding the first or the second exchangeable capsule (4A or 4B), and a second brew chamber part for closing the first brew chamber part around the first or second exchangeable capsule (4A or 4B), and the first brew chamber part having a first substantially annular abutment surface in the cavity arranged for abutting the first flange-like rim there against when the cavity holds the first exchangeable capsule, wherein the first brew chamber part further has a second substantially annular abutment surface arranged for abutting the second flange-like rim there against when the cavity holds the second exchangeable capsule, a diameter of the second annular abutment surface being larger than a diameter of the first annular abutment surface, characterized in that the first substantially annular abutment surface and the second substantially annular abutment surface are immobile relative to each other. a first exchangeable capsule having a first body with a first flange-like rim and a first exit face attached to the first flange-like rim, a second exchangeable capsule having a second body with a second flange-like rim and a second exit face attached to the second flange-like rim, wherein the second flange-like rim has a larger diameter than the first flange-like rim, and an apparatus for preparing a quantity of beverage suitable for consumption, said apparatus including a first brew chamber part having a cavity for selectively holding the first or the second exchangeable capsule (4A or 4B), and a second brew chamber part for closing the first brew chamber part around the first or second exchangeable capsule (4A or 4B), and the first brew chamber part having a first substantially annular abutment surface in the cavity arranged for abutting the first flange-like rim there against when the cavity holds the first exchangeable capsule, wherein the first brew chamber part further has a second substantially annular abutment surface arranged for abutting the second flange-like rim there against when the cavity holds the second exchangeable capsule, a diameter of the second annular abutment surface being larger than a diameter of the first annular abutment surface, characterized in that the first substantially annular abutment surface and the second substantially annular abutment surface are immobile relative to each other.
Cleaning system being configured for cleaning, including fragmentation, debridement, material removal, irrigation, disinfection and decontamination, of cavities filled with a liquid, the cleaning system comprising an electromagnetic radiation system, wherein the electromagnetic radiation system comprises a radiation source for generating a radiation beam and an optical delivery system for the radiation beam, wherein the delivery system includes a treatment handpiece and an exit component, wherein the treatment handpiece and the exit component are configured to irradiate the liquid within the cavity with the radiation beam, wherein a wavelength of the radiation beam is chosen for absorption of the radiation beam in the liquid, wherein the electromagnetic radiation system is adapted to be operated in pulsed operation with at least one pulse set containing multiple pairs of two individual pulses (p), wherein a first pulse (p a) of the pulses (p) is followed by a second pulse (p b) of the pulses (p) with a pulse repetition time (T p), wherein the first p ulse (p a) is delivered at an onset time of the first pulse (t 0a) and the second pulse (p b) is delivered at an onset time of the second pulse (t 0b), wherein the electromagnetic radiation system is adapted to generate a first vapor bubble within the liquid by means of the corresponding first pulse (p a) at the onset time of the first pulse (t 0a) such, that the first vapor bubble oscillates in an expansion phase from a minimal volume to a maximal volume (V max) and in a subsequent contraction phase from a maximal volume (V max) to a minimal volume, wherein the electromagnetic radiation system is adapted to generate a second vapor bubble within the liquid by means of the corresponding second pulse (p b) at the onset time of the second pulse (t 0b) and at a location different to the location where the first vapor bubble is present at the time of generating the second vapor bubble, wherein the electromagnetic radiation system is adjusted to generate multiple pairs of first and second bubbles (18, 18') such, that the time difference between the onset time (t 0b) of the second vapor bubble and the onset time (t 0a) of the related first vapor bubble is repeatedly varied in a sweeping manner, and wherein the pulse repetition time (T p) is varied in the sweeping manner such, that within at least one pair of first and second bubbles (18, 18') the onset time (t 0b) of the second vapor bubble is within the first contraction phase of the first vapor bubble, when the first vapor bubble has contracted from its maximal Volume (V max) to a size in a range from about 0.7 to about 0.1 of the maximal Volume (V max).
A secondary battery pack comprising: a first battery and a second battery each of which includes a positive terminal and a negative terminal; a third battery including a positive terminal, a negative terminal and a bipolar terminal; a first connector configured to electrically connect the negative terminal of the first battery and the positive terminal of the third battery; and a second connector configured to electrically connect the positive terminal of the second battery and the negative terminal of the third battery, where the third battery includes the following elements, with n being an integer equal to or greater than zero: (n+1) positive electrodes and (n+1) negative electrodes alternately arranged; (2n+1) bipolar electrodes individually located in spaces between the positive electrodes and the negative electrodes neighboring each other; an electrolyte; a positive-electrode connection member configured to electrically connect the positive terminal of the third battery and the (n+1) positive electrodes; a negative-electrode connection member configured to electrically connect the negative terminal and the (n+1) negative electrodes; and a bipolar-electrode connection member configured to electrically connect the bipolar terminal and each of the (2n+1) bipolar electrodes. a first battery and a second battery each of which includes a positive terminal and a negative terminal; a third battery including a positive terminal, a negative terminal and a bipolar terminal; a first connector configured to electrically connect the negative terminal of the first battery and the positive terminal of the third battery; and a second connector configured to electrically connect the positive terminal of the second battery and the negative terminal of the third battery, (n+1) positive electrodes and (n+1) negative electrodes alternately arranged; (2n+1) bipolar electrodes individually located in spaces between the positive electrodes and the negative electrodes neighboring each other; an electrolyte; a positive-electrode connection member configured to electrically connect the positive terminal of the third battery and the (n+1) positive electrodes; a negative-electrode connection member configured to electrically connect the negative terminal and the (n+1) negative electrodes; and a bipolar-electrode connection member configured to electrically connect the bipolar terminal and each of the (2n+1) bipolar electrodes.
A MHC molecule construct in soluble form in a solubilizing medium or immobilized onto a solid or semi-solid support, said MHC molecule construct comprising a soluble dextran carrier molecule attached to at least 5 MHC molecules, wherein said MHC molecules are attached to the dextran carrier molecule via more than one binding entity, wherein each binding entity is attached to from 2 to 4 MHC molecules.
A sheet pack comprising an absorbent layer impregnated with a treatment composition containing at least one ingredient that when topically applied to skin stimulates a gene that is variably expressed over a 24 hour period in native untreated skin cells; the sheet pack contained in a package with user instructions to topically apply the sheet pack to the skin at a select time period within the 24 hour time period when the same gene that is stimulated by the ingredient is being maximally expressed in native untreated skin cells; wherein the gene that is variably expressed in native untreated skin cells is one or more of Period gene 1, 2, or 3 (PERI, 2, 3); Circadian Locomotor Output Cycles Kaput (CLOCK) gene; Brain and Muscle Arylhydrocarbon Receptor Nuclear Translocator (BMAL) gene; or cryptochrome circadian gene; and wherein the at least one ingredient that stimulates CLOCK, PER, CRY, or BMAL is one or more of: cichoric acid, Echinacea extract, Tripeptide-32, Tetrapeptide-26; or an autophagy activator selected from yeast extracts from the genuses Candida or Yarrowia; wherein the sheet pack is in the form of a laminate with an impermeable layer bonded to the absorbent layer with a bonding agent; wherein the bonding agent has a melting point ranging from 200 to 300 °C; wherein the laminate has a thickness ranging from 0.2 to 1.5 mm; wherein the absorbent layer is a non-woven fabric and the impermeable layer is a metallic foil; and wherein the user instructions are to apply the sheet pack to the skin at a time ranging from 18:00 to 24:00 hours.
A composition comprising an epidermal growth factor receptor (EGFR) regulatory domain -binding molecule the binding of which to EGFR is competitively inhibited by an isolated peptide consisting of amino acid residues 1167-1185 of SEQ ID NO: 1 or an immunogenic fragment of said peptide, wherein the RD-binding molecule is an antibody, that specifically binds to residues 1167-1185 of SEQ ID NO: 1.
A towing hook arrangement for a vehicle, said towing hook arrangement comprising a housing and a towing hook, said towing hook having a first and a second end (21, 22), said first end of said towing hook forming a ball portion of a ball and socket joint and said second end of said towing hook being connectable to a towable object, said ball and socket joint enabling said towing hook to rotate about at least one axis of rotation (X, Y, Z) between a first position and a second position, characterized in that said ball portion of said towing hook has a point of rotation and in that said point of rotation is configured to be displaceable within said housing to a release position at which said towing hook can effect rotation about said at least one axis of rotation (X, Y, Z) between said first position and said second position.
A microcapsule having a shell and a liquid core incorporating a self-microemulsifying system or a microemulsion, wherein the core comprises a lipohilic substance, at least one surfactant, an active agent, and optionally a cosolvent, characterized in that the core further comprises a gelling agent.
An anode active material for a lithium ion secondary battery, said anode active material being composed of substantially spherical composite particles and plate-like fine composite particles filling the spacings between the substantially spherical composite particles, each composite particle comprising: Si or a Si alloy; and a carbonaceous material or a carbonaceous material and graphite; wherein the substantially spherical composite particles have an average particle size D50 as measured with the method defined in the description of 1 to 10 μm, and an average circularity of 0.7 to 1.0 when determined by image analysis of an image of particles obtained by Scanning Electron Microscopy in accordance with the method indicated in the description, and wherein the plate-like fine composite particles with a minor axis length shorter than 1 μm measured by SEM image observation are not less than 1 wt% and not greater than 80 wt.% of the anode active material. Si or a Si alloy; and a carbonaceous material or a carbonaceous material and graphite; wherein the substantially spherical composite particles have an average particle size D50 as measured with the method defined in the description of 1 to 10 μm, and an average circularity of 0.7 to 1.0 when determined by image analysis of an image of particles obtained by Scanning Electron Microscopy in accordance with the method indicated in the description, and wherein the plate-like fine composite particles with a minor axis length shorter than 1 μm measured by SEM image observation are not less than 1 wt% and not greater than 80 wt.% of the anode active material.
A method for producing two or more vacuum glass panels, the method comprising: removing, from a first glass body including a first glass plate and a heat reflective film disposed on a first surface of the first glass plate, part of the heat reflective film to form a portion having a frame shape without the heat reflective film; removing the heat reflective film partially from a portion around the center of the first glass body; disposing a first glass adhesive (300, 301) in the portion having the frame shape and formed in the first glass body by partially removing the heat reflective film; disposing a second glass adhesive (300, 302) in the portion surrounded by the first glass adhesive and formed in the first glass body by partially removing the heat reflective film; disposing a second glass body including a second glass plate to face the first glass body; evacuating a space between the first glass body and the second glass body; bonding the first glass body and the second glass body with the first glass adhesive and the second glass adhesive to form an integrated panel including a vacuum space; cutting the integrated panel at a location where the vacuum space is not broken to obtain two or more vacuum glass panels; and in the two or more vacuum glass panels, the first glass adhesive and pieces of the second glass adhesive are integrated to form the frame member of each vacuum glass panel. removing, from a first glass body including a first glass plate and a heat reflective film disposed on a first surface of the first glass plate, part of the heat reflective film to form a portion having a frame shape without the heat reflective film; removing the heat reflective film partially from a portion around the center of the first glass body; disposing a first glass adhesive (300, 301) in the portion having the frame shape and formed in the first glass body by partially removing the heat reflective film; disposing a second glass adhesive (300, 302) in the portion surrounded by the first glass adhesive and formed in the first glass body by partially removing the heat reflective film; disposing a second glass body including a second glass plate to face the first glass body; evacuating a space between the first glass body and the second glass body; bonding the first glass body and the second glass body with the first glass adhesive and the second glass adhesive to form an integrated panel including a vacuum space; cutting the integrated panel at a location where the vacuum space is not broken to obtain two or more vacuum glass panels; and in the two or more vacuum glass panels, the first glass adhesive and pieces of the second glass adhesive are integrated to form the frame member of each vacuum glass panel.
An electrode test system of a defibrillator comprising electrodes in a face-to-face test arrangement forming a capacitor, an impedance measurement signal generator connected to the electrodes and configured to send an ac signal to the electrodes, an impedance measurement signal processor connected to the electrodes which comprises a memory unit and a signal conditioning module and is placeable in an electrode test state and is configured to receive an electrode test ac signal from the electrodes and process the electrode test ac signal to obtain a processed electrode test ac signal, a defibrillator processor connected to the impedance measurement signal generator and the impedance measurement signal processor, configured to send at least one control signal to the impedance measurement signal processor to adjust one or more control characteristics stored in the memory unit thereof to adjust one or more conditioning function characteristics of the signal conditioning module to place the impedance measurement signal processor in the electrode test state, and configured to receive the processed electrode test ac signal, analyse the processed electrode test ac signal to obtain an electrode test impedance signal and analyse the electrode test impedance signal to determine a pass condition or a fail condition of the electrodes. electrodes in a face-to-face test arrangement forming a capacitor, an impedance measurement signal generator connected to the electrodes and configured to send an ac signal to the electrodes, an impedance measurement signal processor connected to the electrodes which comprises a memory unit and a signal conditioning module and is placeable in an electrode test state and is configured to receive an electrode test ac signal from the electrodes and process the electrode test ac signal to obtain a processed electrode test ac signal, a defibrillator processor connected to the impedance measurement signal generator and the impedance measurement signal processor, configured to send at least one control signal to the impedance measurement signal processor to adjust one or more control characteristics stored in the memory unit thereof to adjust one or more conditioning function characteristics of the signal conditioning module to place the impedance measurement signal processor in the electrode test state, and configured to receive the processed electrode test ac signal, analyse the processed electrode test ac signal to obtain an electrode test impedance signal and analyse the electrode test impedance signal to determine a pass condition or a fail condition of the electrodes.
Current collector for a battery cell, the current collector (10, 26) comprising a main area for connecting the current collector (10, 26) to a layer (33, 34) of active material, wherein a plurality of orifices is provided in the main area, the orifices being arranged in a plurality of orifice strings, wherein the orifice strings define current paths between them, wherein at least two orifice strings proceed in a varying distance (d 2) to each other, characterized in that a plurality of electrically insulating spacer elements (28, 29) is provided attached to the current collector (10, 26), the plurality of spacer elements (28, 29) being positioned in the main area of the current collector (10, 26).